Martha Loizeaux: Plankton Palooza, August 22, 2018

NOAA Teacher at Sea

Martha Loizeaux

Aboard NOAA Ship Gordon Gunter

August 22-31, 2018

 

Mission: Summer Ecosystem Monitoring Survey

Geographic Area of Cruise: Northeast Atlantic Ocean

Date: August 22, 2018

 

Weather Data from the Bridge

  • Latitude: 991 N
  • Longitude: 590 W
  • Water Temperature: 22.3◦C
  • Wind Speed: 1 knots
  • Wind Direction: WSW
  • Air Temperature: 23.3◦C
  • Atmospheric Pressure: 66 millibars
  • Sky: Mostly Cloudy

 

Science and Technology Log

Haven’t you always dreamed of having your own Imaging Flow Cyto Bot (IFCB)?  What an interesting scientific instrument that I am lucky enough to be taking care of while on this cruise!  Before we even left the dock, Jessica Lindsey (volunteer from the Maine Maritime Academy) and I were trained by Emily Peacock, research associate at Woods Hole Oceanographic Institution, on how to run this amazing piece of equipment!

The IFCB is a computer, microscope, camera, and water flow controller all in one.  Emily describes it as “plumbing combined with electronics”.  It uses a water intake system from the ship to run a constant flow of water into extremely tiny hoses. As the water flows through these hoses, a laser beam of light shoots at every tiny particle that is in the water.  The tiny particles in the water, mainly phytoplankton (microscopic drifting plants), react to the sudden burst of light.  The phytoplankton scatters the light and also can react by fluorescing (reacting to one wavelength of light by giving off a different wavelength).  The computer detects this scattering and fluorescing to determine where the phytoplankton is in the water flow.  The microscope focuses in on each phytoplankton cell and the camera takes a picture!  Scientists simply get the IFCB going and at the end of the day they have hundreds of pictures of plankton!  Isn’t that incredible?!

Martha IFCB
Here I am learning how to use the IFCB! It is SO COOL!

One thing I’ve learned about this particular cruise is that it’s all about plankton!  We are collecting samples and data for scientists at the University of Rhode Island, Woods Hole Oceanographic Institution, and NOAA’s own Narragansett Lab, just to name a few.  What are all of these scientists studying?  Plankton!  Why?  Plankton is the microscopic lifeblood of the ocean.  The word plankton comes from a Greek word, oikos, meaning “drifter.”  Plankton refers to all the living things of the ocean that are drifting with the currents.  They are present throughout the water column and consist of two types:  phytoplankton and zooplankton.  Can you guess the difference?  Phytoplankton is like a plant.  It has chlorophyll and does photosynthesis.  Zooplankton is an animal.  There are many zooplankton species that hunt, hide, and do other things that larger animals do.  Most plankton is microscopic or close to it.  Phytoplankton does at least half of all the photosynthesis in the WORLD.  So you can think that every other breath you take contains oxygen created by phytoplankton.

Both types of plankton are the base of the marine food chain. If major changes happen in the community of plankton in the sea, these changes will impact the entire food chain all the way up to the apex predators (top predators).  So, as you can see, plankton is SUPER important.  If plankton populations are healthy, it indicates that much of the rest of the ecosystem is healthy too.

Some scientists use equipment, like the IFCB, to study samples of phytoplankton.

plankton on screen
Associate Researcher Emily showing us the program that allows you to see pictures of the phytoplankton sampled.

We also are collecting zooplankton in nets (called “bongo” nets) and preserving samples for scientists to analyze in the lab.  More on that to come soon!

My students have been learning that scientists always start an experiment with a question.

Scientists on this mission are not exactly leading an experiment, but they are responsible for monitoring.  The monitoring of an ecosystem tells us WHAT is happening there.  Scientists from all over the world can then use the monitoring data that we find to research and experiment WHY things are happening the way they are.  This is where the scientific method will come in and an experiment will start with a question.

For example, through the plankton samples that we take on this monitoring mission, scientists may notice a change in the amount of larval hake (tiny baby hake fish).  They can then ask the question, “Why are larval hake populations decreasing?” which may lead them to a hypothesis such as, “larval hake populations are decreasing due to climate change”.  They can test this hypothesis by comparing the plankton data to other types of data (such as pH and water temperature) in the same areas over time.  Thus, an experiment!

So our job now is to collect the important data that can help scientists understand what’s happening and think of ways to investigate “why” and “how”.

Bottom line, I really love plankton.  And you should too.  That breath you just took?  Thank plankton.

screen shot of plankton
Pictures of glorious plankton!

 

Scientist Spotlight – John Loch – Seabird Observer

Enough about plankton!  During all of this plankton excitement, I have also spent some time on the fly bridge (the top level of the deck of the ship), asking questions to our two seabird observers, John and Chris.  Their job is to stand watch all day, looking for and identifying seabirds, marine mammals, sea turtles, and any notable (large) animals.  Here’s a little interview with John Loch, Seabird Observer:

 

Seabird observer
John observing seabirds from the fly bridge

Me – Why is your job so important?

John – My job is to monitor seabird populations to help detect changes in numbers or distribution of species.  We estimate a 300 square meter area around the ship and record all birds seen within that area.  We enter our data into a computer, noting species, life stage, number seen, and direction of flight.  Over time, we may notice trends in numbers and distribution which is important to understand this ecosystem.

 

Me – What do you enjoy most about your job?

John – I enjoy seeing anything new or rare.

 

Me – How could scientists use your monitoring data to lead an investigation (using the scientific method)?

John – Our data has shown, for example, that some populations of birds, such as the gannet, have steadily declined over the last 20 years.  Researchers can ask “Why are gannet populations declining?” and can use oceanographic data in combination with bird observation data to come up with a hypothesis to test.

 

 

Personal Log

I was excited to get underway this afternoon!  Although many of us slept on the ship last night, we have been on the dock until 2:30 this afternoon, when we finally watched the crew release the lines and the ship cruise through the harbor and out to sea!

bow in harbor
A view of the bow as we head out to sea!!

We began our day with a scientist meeting where Harvey Walsh, our Chief Scientist, explained our route and the “stations” where we would be slowing down or stopping the ship to take our data.  He explained our 3am-3pm/3pm-3am shifts that we alternate so that whenever a station is reached, day or night, data can be collected.  I’m lucky to intersect these shifts and work “on watch” from 8am-8pm!  This means that I will support and assist scientist in their data collection during this time, and generally be present and available.

Scientist showing route
Chief Scientist Harvey explaining our route on the Northeast Shelf.

We also heard from Libby, our Operations Officer, who explained our state rooms, bathrooms, shared spaces, and general “do’s and don’ts” of the ship.

Safety briefing
Libby, our Field Operations Officer, explaining the safety procedures of Gordon Gunter

I have to say I am pleasantly surprised by our living quarters aboard NOAA Ship Gordon Gunter.  I have my own state room with a shared bathroom, small closet, sink, and even a desk.  It is quite spacious!  I’m also excited about the food options on board, but more about that later!

view from room window
The view from my state room…not bad!

Tonight is our first night out at sea!  Luckily, I’m not feeling seasick, but rocking and rolling as I type this does feel pretty strange!  Everyone says we’ll get used to it and it will feel normal in no time.

I am so excited for our first morning and sunrise out at sea!  Stay tuned!

 

Did You Know?

Phytoplankton come in all different colors, just like the flowers in your garden.  Since they are so tiny, we don’t see the colors unless there is a lot of plankton all together.  They also contain more than one color in their cells, similar to leaves that change from green to brown, red, or orange.

noaa phytoplankton
Colorful phytoplankton, photo courtesy of NOAA

Question of the Day

Do you think the amount and type of plankton in an area can affect how many sharks live there?  Why?

NOAA shark
Do sharks rely on plankton? Photo courtesy of NOAA

 

 

 

 

Martha Loizeaux: Sea You Later!, August 18, 2018

NOAA Teacher at Sea

Martha Loizeaux

Aboard NOAA Ship Gordon Gunter

August 22 – August 31, 2018

 

Mission: Summer Ecosystem Monitoring Survey

Geographic Area of Cruise: Northeast Atlantic Ocean

Date: August 18, 2018

 

Welcome

Hello from the Florida Keys!   I am so excited to be embarking on my Teacher at Sea excursion in just 4 days.  I will be joining the crew aboard NOAA Ship Gordon Gunter to participate in a Summer Ecosystem Monitoring Survey in the Northeast Atlantic, departing from Rhode Island and returning to port in Virginia.  I am looking forward to working side by side with NOAA scientists, sharing knowledge with my students, and having the experience of a lifetime!

My students at Ocean Studies Charter School are prepared to follow me along on my journey via this blog and our online classroom.  They have even practiced their own Summer Ecosystem Monitoring Survey of the Hardwood Hammock forest surrounding our school!

I hope you’ll join us in this adventure and check back here for more blog posts in a few days!

20517
The view from my kayak as I lead Ocean Studies Charter School students on a seagrass investigation.

 

Weather Data from the NOAA weather station at Molasses Reef in the Florida Keys

Molasses buoy
The NOAA weather station at Molasses Reef off of Key Largo. Photo courtesy of NOAA.
  • Latitude: 25.130 N
  • Longitude: 80.406 W
  • Water Temperature: 85.6◦F
  • Wind Speed: 11 knots
  • Wind Direction: ESE
  • Air Temperature: 84.4◦F
  • Atmospheric Pressure: 30.13 in
  • Sky: Partly Cloudy

 

Science and Technology Log

 I am very much looking forward to participating in the Summer Ecosystem Monitoring Survey aboard NOAA Ship Gordon Gunter.  At Ocean Studies Charter School, we do projects to monitor the seagrass, mangrove, and coral reef ecosystems each year while out in the field.  It will be interesting to see how NOAA scientists conduct these surveys; what tools and equipment they use, what animals and plants they will find, and what aspects of water quality they will measure.

NOAA Ship Gordon Gunter
NOAA Ship Gordon Gunter. Photo courtesy of NOAA.

The ecosystem we will be monitoring on the mission is called the Northeast U.S. Continental Shelf Large Marine Ecosystem (NES LME).  You can just call it the “Northeast Shelf.”  This ecosystem spans the coast and out to sea from North Carolina up to Maine.  Scientists want to know a lot about this part of the ocean because it is very important for something we love to do here in the Keys:  FISHING.  Fishing is fun, but it’s also the way that many people in our country get their food and make money to live.  Fishing is a major industry along the east coast, so the Northeast Shelf Ecosystem is considered a very important natural resource that we need to protect.

Northeast Shelf Ecosystem
A map of the Northeast Shelf Ecosystem. Image courtesy of NOAA.

How can scientists understand and protect this resource?  It starts with Ecosystem Monitoring.

An ecosystem is a place where living things and non-living things work together like a big machine.  Each part of the machine, both living and non-living, is important for the whole system to work.  For example, in an ocean ecosystem, every type fish is needed for the food web to function.  Clean water and plenty of sunlight is needed for the ocean plants and phytoplankton to be healthy.  The ocean plants are needed for the invertebrates that the fish eat… and the cycle continues!  In order for scientists to understand the fish that are important to us, they need to understand EVERY piece of the ecosystem since it is all connected.  That’s why we will be measuring lots of different things on our mission!

ocean ecosystem
An ocean ecosystem has many important parts and pieces. Image courtesy of NOAA.

Monitoring means “observing and checking something over a period of time”.  NOAA scientists observe, measure, and check on this ecosystem 6-7 times per year.  Monitoring an ecosystem lets people know WHAT is going on within the ecosystem.  Scientists can use this information to research WHY things are happening the way they are.  Then, they can use modeling to find out WHAT might happen in the future.  This helps the government make decisions about our precious resources and make plans for the future to keep our oceans healthy and our fish populations strong.

Rosette deployment
There are many types of tools scientists use to monitor ecosystems. Photo courtesy of NOAA.

On our mission, scientists will collect plankton, invertebrates, and fish with special nets to count and measure them.  They will look and listen for marine mammals and sea birds.  They will take measurements of the water such as temperature, salinity (amount of salt), nutrient levels, and ocean acidification.  These measurements will help them understand the quality of water and changes of the climate in this area.  What other aspects of the ecosystem do you think are important to measure?

Bongo net deployment
Special nets are used to collect and study plankton. Photo courtesy of NOAA

I can’t wait to see how we will take all of these measurements and what we will see out there!

 

Personal Log

I am proud to call myself the Marine Science Teacher at Ocean Studies Charter School in Tavernier, Florida Keys.  We are a small public charter elementary school, focused on the surrounding marine environment and place-based learning.  I teach science to all grades (K-5) and lead our weekly field labs.  I even drive the school bus!  We use the term “field labs” instead of “field trips” to highlight that we are not simply visiting a place.  We are using the outdoors as our learning laboratory, working on projects, collecting data, and partnering with local organizations on our excursions.  We study the local habitats of the shallow seagrass beds, mangrove forests, and coral reefs that we are so lucky to have in our backyard.

students at beach
Taking students to the beach to study shallow water ecosystems.

Upon my return from my Teacher at Sea mission, we will be hosting the grand opening of our new Marine Discovery Laboratory in the center of our school!  After teaching marine science in an outdoor classroom for the past 7 years, I am excited for the opportunities that our state-of-the-art indoor lab will bring (no more visits from the local iguanas)!

Lionfish
Learning about lionfish in the lab.

My students impress and amaze me every day with their ideas and discoveries.  I have watched them create and present model ecosystems, examine hurricane protection ideas by studying animal survival, and help scientists tag sharks to learn more about their populations.  At the start of this new school year, I cannot wait to see what ideas they will come up with next!

Everglades
Leading students on a tour of Everglades National Park.
Students fishing
Sustainable fishing with students in the field.

It will be hard to be away from my family, especially my two awesome sons, ages 6 and 9.  I hope they enjoy following along with Mom’s blog and that they are inspired by my experience!

I originally hail from New Hampshire but have lived in Florida for all my adult life.  Prior to teaching, I worked on boats as an environmental educator and earned my captain’s license along the way.  I have been a SCUBA instructor, marine aquarist, and guide for summer travel adventure camps.  As a teacher, I have been lucky enough to also participate in “Teacher Under the Sea” through Florida International University.  In this program, I assisted scientists under the ocean at the Aquarius Undersea Laboratory right here in the Florida Keys.  Throughout my life, I have loved the ocean.  One day, I hope to sail out to sea and travel the world on my own boat.

diving
Diving outside the Aquarius Undersea Lab during “Teacher Under the Sea”.

But for now, I’m not sure exactly what to expect in terms of living aboard NOAA Ship Gordon Gunter.  I look forward to sharing adventures and stories of life at sea!  Stay tuned to this blog and check for my updates in a few days.  Sea you soon!

 

Did You Know?

NOAA Ship Gordon Gunter was named after an American marine biologist and fisheries scientist who was considered a pioneer in the field of fisheries ecology.

The ship was originally built in 1989 as the U.S. Naval Ship Relentless and was transferred to NOAA in 1993.

NOAA Ship Gordon Gunter.
NOAA Ship Gordon Gunter. Photo courtesy of NOAA.

 

Word of the Day

 Ichthyoplankton – The planktonic (drifting) eggs and larvae of fish.

When scientists tow for plankton, studying the icthyoplankton helps them understand fish populations.

Fish Egg
An example of icthyoplankton. Photo courtesy of NOAA.

 

Michelle Greene: Visual Sighting Team, July 23, 2018

NOAA Teacher at Sea

Michelle Greene

Aboard NOAA Ship Gordon Gunter

July 19 – August 3, 2018

 

Mission: Cetacean Survey

Geographic Area: Northeast U.S. Atlantic Coast

Date: July 22-23, 2018

Latitude: 40° 35.213″ N

Longitude: 66° 6.692″ W

Sea Surface Temperature: 23.4° C (74.1° F)

Knots: 7.85 knots

Science and Technology Blog:

The visual sighting team started early this morning at 6:00 am and had rotating shifts of 30 minutes each until 7:00 pm.  The different shifts included watching with regular binoculars on the port and starboard sides, watching with the big eyes on the port and starboard sides, and being the data recorder for sightings.  I had the opportunity to shadow scientists in each of these positions throughout the first day and actually performed the duties on the second day.

Members of the Cetacean Survey Visual Team on Lookout
Members of the Cetacean Survey Visual Team on Lookout

One of the important jobs the data recorder has is to input the environmental conditions at a certain point in time.  The first measurement to input is the percent of cloud cover which is just a number from 0 to 100. Then the glare magnitude is determined on an ordinal scale from 0 to 4 with a value of zero meaning none and a value of four meaning severe.  After determining the glare magnitude, the percent of glare cover is determined.  Since the two sets of big eyes cover from 90 degrees left of the bow to 90 degrees right of the bow, the glare covering this spaced is what is determined.  The data recorder also has to determine the degree angle and height of the ocean swell.  Swell is not the wind waves generated by local weather.  It is the wind waves that are generated by distant weather systems.  Then the Beaufort scale is used to determine the amount of wind on the ocean.  The scale was developed by Sir Francis Beaufort of the United Kingdom Royal Navy in 1805.  The scale ranges from 0-12.  A zero score means the surface is smooth and mirror like, while a score of 12 means there are hurricane force winds.  Rain or fog is also determined by the data recorder.  Finally, the data recorder has to determine a subjective condition of the weather overall.  This is on an ordinal scale from 1 to 4 with 1 being poor and 4 being excellent.

When a marine animal is sighted by one of the observers, the data recorder has to input several measurements about the event.  The bearing of the location of the animal has to be determined using the big eyes.  Also, the big eyes have a scale in the lens called reticles that determines distance from the ship to the animal.  A conversion scale can then be used to determine how far away the animal is in meters or nautical miles.  The number of animals sighted, including any calves that are in the group, has to be given.  The group’s swim direction has to be determined based on bearing from the ship.  If possible, the species of the group has to be given.  Since the objective of this survey is to find the occurrence of Mesoplodons in the North Atlantic Ocean, determining the species is very important.  Also the observer has to give the initial cue as to what determined the identification of the species.  Several different cues are available such as the body of the animal, the blow of a whale or dolphin, or the splash.

The software used to input the occurrence of a marine mammal automatically inputs the GPS of a sighting.  The initial route for this survey is a zig zag pattern out of Rhode Island towards Georges Bank.  There are several canyons with very deep waters (over 1,000 meters) which is where the Mesoplodons make foraging dives to get food.  Instead of making a straight line through the canyons and only making one pass through the area, using zig zag routes gives the survey a better chance of locating Mesoplodons.  The chief scientist uses the information from sightings to track a path for the ship to take the next day.  Sometimes the acoustics team hears possible Mesoplodons.  If the acoustics team can find a convergence of the area of an animal, they will tell the ship to go at a slower rate or turn.

The map here shows the sightings of Mesoplodons from the beginning of our journey and the zig zag pattern taken by the chief scientist.  The first day of our journey, a storm was coming up the East Coast.  The Gordon Gunter‘s Commanding Officer (CO) determined that we could run from the storm by going east in a straight line direction instead of doing the zig zag motion.  The CO was correct, because we did not have bad weather.  The ocean had a lot of high swells which made the boat rock tremendously at times but no rain.

GU18-03_Map_24July2018_wLegend
A map of the daily route of the Gordon Gunter based on sightings.

 

Personal Log

I have found my favorite place to be on the visual sighting team…being the data recorder.  Statistics is my passion, and being the data recorder puts me in the middle of the action getting mass amounts of data.  It also helps that the data recorder sits in a high chair and can see a wide area of the ocean.  The scientists have been very helpful in finding me a milk crate, because that chair is so high I cannot get onto it without the milk crate.  Being the data recorder can be intense sometimes, because multiple sightings can be made at the same time.  In any free time I have, I will fill in as the data recorder.  It is lots of fun!

Data Recorder
Favorite place to be on the visual team – Data Recorder

One thing that was a little intimidating to me at first was the intercom system.  I would hear things like, “Fly Bridge Bridge.”  Then the data recorder would say “Bridge Fly Bridge.”  I had no clue of what they were talking about.  Then all of a sudden it made sense to me.  In “Fly Bridge Bridge,” someone from the Bridge is calling up to us on the Fly Bridge.  The Bridge has a question or wants to tell the people on the Fly Bridge something.  Since I figured it out, I am ready to go.

I have learned so much on this cruise in the short time I have been aboard the Gordon Gunter.  My head is exploding with the numbers of lessons that I can incorporate into my statistics classes.  I have also talked with the acousticians, Jenny, Joy, Emily, and Anna Maria, and have come up with lessons that I can use with my algebra and calculus classes as well.  The scientists have been very generous in sharing their knowledge with a science newbie.  Being a math teacher, I want to be able to expose my students to all kinds of content that do not deal with just the boring math class.  Being a Teacher at Sea has opened up a whole new experience for me and my students.

We have an interesting participant in our cruise that I was not expecting but was happy to meet…a seabird observer.  Before this cruise I did not know there were birds that pretty much lived on the surface of the ocean.  These birds have been flying around the ship which is about 100 nautical miles from shore.  The seabird observer documents all sightings of seabirds and takes pictures to include in his documentation.

Did You Know?

Reticles are the way a pair of binoculars helps observers to determine the distance to an animal; however, the conversion from reticles to distance is not an instantaneous solution.  Based on the height of a pair of binoculars on the ship, reticles can mean different distances.  A conversion chart must be used to determine actual distance.

Check out this article on how to estimate distance to an object with reticles in a pair of binoculars:

Using reticle binoculars to estimate range

Animals Seen

  1. Sperm whales (Physeter macrocephalus)
  2. Fin whales (Balaenoptera physalus)
  3. Cuvier’s beaked whale (Ziphius cavirostris)
  4. Risso’s dolphins (Grampus griseus)
  5. Bottlenose dolphins (Tursiops truncatus)
  6. Common dolphin (Delphinus delphis)
  7. Great shearwater bird (Puffinus gravis)
  8. Cory’s shearwater bird (Calonectris borealis)
  9. Wilson’s storm petrel bird (Oceanites oceanicus)
  10. Leach’s storm petrel bird (Oceanodroma leucorhoa)
  11. White-faced storm petrel bird (Pelagodroma marina)
  12. Red-billed tropicbird (Phaethon aethereus)

Vocabulary

  1. acoustician – someone whose work deals with the properties of sound
  2. bearing – the direction from your location to an object in the distance starting at 0° which is located at absolute north.  For example, if an animal is spotted at 90°, then it is due east of your location.
  3. blow of a whale – the exhalation of the breath of a whale that usually looks like a spray of water and is an identifying feature of different species of whales
  4. bow of a ship – the point of the ship that is most forward as the ship is sailing (also known as the front of the ship)
  5. cloud cover – the portion of the sky that is covered with clouds
  6. foraging dive – a type of deep dive where a whale searches for food on the ocean floor
  7. glare – the light reflected from the sun off of the ocean
  8. nautical mile – a measurement for determining distance on the ocean which is approximately 2025 yards (or 1.15 miles) or 1852 meters
  9. port side of a ship – when looking forward toward the bow of the ship, the left side of the ship is port
  10. starboard side of a ship – when looking forward toward the bow of the ship, the right side is starboard

Michelle Greene: Setting Sail on the Gordon Gunter, July 20, 2018

NOAA Teacher at Sea

Michelle Greene

Aboard NOAA Ship Gordon Gunter

July 20-August 3, 2018

Mission: Cetacean Survey

Geographic Area of Cruise: Northeast U.S. Atlantic Coast

Date: July 20, 2018

Weather Data from the Bridge

Latitude: 41° 31.838′ N

Longitude: 71° 19.018′ W

Air Temperature:  26.7° C (80° F)

Conditions: Sunny

Science and Technology Log

Beaked whales are elusive creatures that roam all of the world’s oceans.  The purpose of this cetacean cruise is to find the occurrence and distribution of beaked whales in the northeast Atlantic off the coast of Rhode Island and Massachusetts.  The beaked whale is a toothed whale from the family Ziphiidae.  Several types of beaked whales have been spotted in this region including the True’s beaked whale (Mesoplodon mirus) and the Cuvier’s beaked whale (Ziphius cavirostris).

To find the occurrence of beaked whales, the scientists are using several different methods.  The first method is a visual sighting of the animals.  High-powered binoculars, affectionately termed “big eyes” can see animals from several nautical miles away.  Then regular binoculars are used to scan the areas closer to the ship.  The second method scientists are using is by passive acoustics.  Acousticians are using two different types of listening devices to try to hear the whales.  The first device is called a linear array.  In this device, four hydrophones are attached to a tube in a linear pattern.  The array is then towed in the water behind the ship, and acousticians can hear the whales when they communicate.  The acousticians can then determine how far the whale(s) is(are) from the device.  However, with this type of array, it is difficult to calculate how deep the whale is in the water.

In an effort to improve detection of the depth of a beaked whale, a new array has been designed.  This tetrahedral array is designed so that the four hydrophones are placed in a way that is not linear two-dimensional space but in a more three dimensional space, so scientists can detect not only the distance of a whale but the depth.  We will be testing a new prototype of this array during this cruise.

Personal Log

Arriving the day before the Gordon Gunter sailed allowed me to see some pretty interesting things.  I got to help two of the scientists put up the “big eyes.”  These binoculars are really heavy but can see very far away.  On the day we sailed, we were able to zero the binoculars which means we set the heading on the binoculars to zero with the ship’s bow based on a landmark very far away.  We could not zero them the day before, because there was not a landmark far enough away to get an accurate reading.

The Gordon Gunter is one of the larger ships in the NOAA fleet according to several of the scientists who have been on many cruises.  It took me a while to figure out where all of the doors go and how they open.  I did not realize how hard it was to open some of the doors.  According to the XO, the doors are hard to open because of the pressure vacuum that exists in the house of the ship.  There is not really a reason for the vacuum to exist.  It is just the nature of the ship.

Life on board the Gordon Gunter has been very interesting for the first day.  Before leaving port, we had a fleet inspection.  We had to do all of our emergency drills.  Safety is very important on a ship.  We had to do a fire emergency drill where everyone had to meet at a muster station and be accounted for by one of the NOAA officers.  Then we had to do an abandon ship drill.  Then once we got sailing a short time, we had to do a man over board drill.

Donning the immersion suit in case of an abandon ship order was not a thrill for me but was comical in retrospect.  I am only 4’ll”, and the immersion suit I was given is made for someone who is over six feet tall.  When I tried on the suit, I had two feet of immersion suit left at the bottom.  When the NOAA officer came to inspect, he said I definitely needed a smaller suit.

One of the best features of my cruise so far has definitely got to be the galley.  The Gordon Gunter has the best cook in Miss Margaret.  She is the best and makes awesome food.  She has made cream cheese from scratch.  She makes the best smoothies.  I can only imagine what we are going to be getting for the rest of the cruise.

Did You Know?

All marine mammals, including the beaked whales, are protected under the Marine Mammal Protection Act.

Check out this website on what the law states and what it protects:

https://www.fisheries.noaa.gov/topic/laws-policies#marine-mammal-protection-act

Michelle Greene: Getting Ready for a Big Adventure, July 18, 2018

NOAA Teacher at Sea

Michelle Greene

Aboard NOAA Ship Gordon Gunter

July 19 – August 3, 2018

 

Mission: Cetacean Survey

Geographic Area: Northeast U.S. Atlantic Coast

Date: July 18, 2018

 

Latitude: 34° 18.967′ N

Longitude: 79° 52.047′ W

Temperature: 89° F (32° C)

Tomorrow is the big day!  I am getting ready to board the plane from Florence, SC to Charlotte, NC to Providence, RI.  I have never been to Rhode Island, so this is going to be a bucket list activity to keep adding states to my history.  Rhode Island will make state number 24…almost half way!

I teach in a very rural high school in Lamar, South Carolina which is approximately 90 miles from Myrtle Beach.  Lamar High School has about 280 students.  This year we had a graduating class of 52 students.  I teach Calculus, Statistics, and Algebra 2 Honors.

Teaching statistics is the main reason I applied to the Teacher at Sea program.  I wanted to give my students some real world experience with statistics.  I try to create my own data for students, but I end up using the same data from the Census, Bureau of Labor Statistics, Major League Baseball, etc.  I had one student a couple of years ago in Algebra 2 Honors who is a weather lover.  His favorite website is NOAA, and he would give me the daily weather or hurricane updates.  Any time we had a baseball game, he would be able to tell me if we were going to be able to play the game.  Being able to provide him and his classmates projects using data from something he loves will help me to reach that one student.  Hopefully, I might even spark interest in other students.

Helping my students to become statisticians is the main reason I applied; however, I also applied to challenge myself.  Throughout my life, I have not been the kind of person who deals well with creepy crawly things.  Being on a ship on the ocean will definitely force me to deal with that.  I want to do my very best to get involved in all kinds of neat activities.  I hope “Cool Beans!” will be my daily saying.

I am really looking forward to working with the scientists on the Gordon Gunter.  Having read as much as I can about the Passive Acoustic Research Group has helped me to understand a little of what we will be doing on our 15-day journey.  I hope that I can help them to further their research to learn the patterns that cetaceans use to communicate with each other!