Debra Brice, November 14, 2003

NOAA Teacher at Sea
Debra Brice
Onboard R/V Roger Revelle
November 11-25, 2003

Mission: Ocean Observation
Geographical Area: Chilean Coast
Date: November 14, 2003

Data from the Bridge

1.  141700Z Nov 03
2.  Position: LAT: 14-54.6’S, LONG: 084-55.0’W
3.  Course: 180-T
4.  Speed: 12.2 Kts
5.  Distance: 293.6 NM
6.  Steaming Time: 24H 00M
7.  Station Time:  00H 00M
8.  Fuel: 4245 GAL
9.  Sky: OvrCst
10. Wind: 120-T, 17 Kts
11. Sea: 120-T, 2-3 Ft
12. Swell: 140-T, 3-5 Ft
13. Barometer: 1016.2 mb
14. Temperature: Air: 21.5 C, Sea 19.0 C
15. Equipment Status: NORMAL
16. Comments: None.

Science and Technology Log

We are still underway, about 800 miles off the coast of Peru.  We will arrive at the Woods Hole Stratus Buoy tomorrow at about noon.  We will be taking out a small boat ( zodiac or the RHIB) to look it over before we try to bring it in.  It is heavily instrumented and will be covered in many animals.  They will have to be cleaned off and I will enjoy preserving and identifying some of them.  I found a copy of my old invertebrate zoology book onboard so this should be worth several hours of entertainment for me.  Dr. Weller’s group will be removing the instruments in preparation for taking the buoy out of the water and loading it onboard.  Then we will spend another day deploying the new Stratus Buoy.  The old one will be shipped back to Woods Hole Oceanographic Institution for Arica, Chile.

Most of the day we were deploying sea surface drifters and several radiosondes for the ETL group.  Tomorrow Jason Tomlinson, from Texas A&M will be taking some aerosol samples for his research.  I will be interviewing the Chief Engineer, Paul Maurice and touring the engine room of the REVELLE. Radiosondes are used to collect data on atmospheric temperature, humidity, pressure and uses onboard GPS for wind direction and windspeed from the surface up to the lowest part of the Stratusphere.  I have put up some pictures of the radiosondes.  My e-mails and internet access are being made possible by the ROADnet system that is installed here on the R/V REVELLE.  We have “live” cameras off the fantail of the boat and in the main lab as well as telphone and internet capabilities due to ROADnet.  The Visualization Center at Scripps Institution of Oceanography, located at the Cecil H. and Ida M. Green Institute of Geophysics and Planetary Physics ( IGPP),houses the state of the art system  that allows scientists to take enormous data sets, such as earthquake activity east of San Diego, the morphology of the global seafloor, or the topography of Mars and illustrate them on a large screen in 3 dimensions.  One new project taking advantage of the Visualization’s data management capabilities is termed ROADnet ( Real time Observatories, Applications, and Data Management Network). ROADnet sensors, located throughout the world and on Scripp’s largest ship, the Roger Revelle, deliver real-time data to the center for nearly instantaneous review by scientists on campus.  I will be using ROADnet to do a broadcast to a geography class next week at San Marcos HIgh School in San Marcos, California.  The class of teacher Larry Osen will be able to see me and the scientists on the Revelle as we deploy a CTD as it is happening and ask questions of the scientists.  This system is presently being installed on Scripps other large ship the R/V MELVILLE.  This is an exciting example of how technological innovations help advance scientific understanding of the oceans.

Personal Log

I’m a little disoriented on my times as I am doing the 12am to 4am watch.  I get up a little later that I normally would, about 10:30am.  Tomorrow we will come up on the buoy so I need to be up earlier enough to participate.  We will be filming and doing interviews during the recovery.  Besides if I get up earlier enough they might let me go out in the zodiac!  I will ride on any boat that floats, so this is too good an opportunity to miss.  Since the buoy has been out at sea for a year it will be covered in animals and surrounded by fish.  Anything that floats in the open ocean becomes a little miniature ecosystem,  So there will be some fishing and lots to see.  We will also being doing our first CTD cast tomorrow and I will have some pictures and descriptions of what a CTD is and why we are deploying it ( actually some of us are deploying it just to shrink our decorated styrofoam cups!)  I will be explaining that tomorrow too.  What oceanographers do for entertainment on long voyages.  So tune in tomorrow for some fun at sea!

Cheers

Nancy Lewis, September 23, 2003

Nancy Lewis
Onboard NOAA Ship Ka’imimoana
September 15 – 27, 2003

Mission: Tropical Atmosphere Ocean (TAO)/TRITON
Geographical Area: Western Pacific
Date: September 23, 2003

Sunrise:  0608
Sunset:   1815

9/22/03~2330:  6 N CTD

0615:  7N CTD

1300:  8N CTD

2000:  Repair 9 N Buoy W/ CTD

Weather Observation Log

Latitude:  7 Degrees, 25.3’ N
Longitude:  140 degrees, 8.0 W
Visibility:  12 nautical miles (nm)
Wind direction:  170 degrees
Wind speed:  10 knots
Sea wave height:  3-4 feet
Swell wave height:  4-6 feet
Sea water temperature:  28.5 degrees C
Dry bulb pressure:  30.4 degrees C
Wet bulb pressure:  26.3 degrees C
Cloud cover:  5/8, Altocumulus, cirrus
Air Tempterature:  30.4 degrees C

Science and Technology Log

Previously, I explained that there is other scientific work being done on this cruise.  One such project is CO2 and pH analysis.  Previous to this, NOAA has been using water samples taken from the CTD, and these samples only come from particular depths, generally every 200 meters.  The scientists from the University of South Florida have brought along devices which they are testing in order to work out the “bugs”, from these prototypes.  They are called SEAS systems, and are lowered in the water column to a depth of 300 meters at a rate of 6 meters per minute to collect pH profile continuously.  The advantage of the SEAS system over taking samples from the CTD is that they get a continuous data, not just data from the specific depths tested by the CTD.  The data they produce is therefore much more complete and accurate.

In my interview with Dr. Renate Bernstein I asked the question:  “Is your work related to studies of global warming?”  Her answer was: “absolutely. “  The SEAS system is analyzing dissolved CO2 in the ocean water. Normally, the ocean is considered to be a “sink” for CO2 in the atmosphere.  Cold water has the capacity to dissolve more CO2 from the atmosphere than hot water.  The analogy would be to think of the carbon dioxide in a carbonated soda.  If you shake up a cold drink,  it doesn’t fizz as much.  If you do the same thing with a warm soda,  it will fizz up much more.

How does dissolved CO2 relate to the pH of the ocean?  The  carbon dioxide combines with water (H20) molecules in the ocean to produce carbonic acid, which has a higher acidity.  Thus water with more dissolved CO2 would have a higher pH value.

Dr. Bernstein explained that there are areas, however, where the ocean is liberating CO2. She said that was what they were seeing from the data they’ve collected.  The water near the equator where cold water upwelling occurs were the places where CO2 was being diffused into the atmosphere.  According to Dr. Bernstein, what they were doing on board this vessel was truly “cutting edge science” being done nowhere else in the world.  It has been exciting to me and a great honor to share with you some of  the science being done on board the KA’IMIMOANA.

Personal Log

For the first time on this cruise,  the weather has become hot and humid.  It was not a pleasant day to be out on the deck of the ship, plus they were power washing the deck and acid cleaning the sides of the vessel.  Last night I was out with my Planosphere, trying to identify some constellations, but the clouds had started, so visibility was not that good.  I did see Sagittarius, which looks like a teapot.  Randy, the Survey Tech in charge of the CTD, showed me a computer program that I want to get called “Starry Night”.  You put in your location and the time and date, and it shows the night sky and superimposes images over the constellations:  very cool!

I almost missed the biggest event of the day, and for me, of this, cruise.  John Kermond had told me that the buoy repair was cancelled, so there wouldn’t be a last RHIB ride out to the buoy.  I had already prepared for bed, when there came a knock at the door. “ Hurry up,  they’re going on the RHIB!” I quickly scrambled on some clothes and ran up to the deck, while Doc hunted up a hard hat and life jacket for me.  They strapped a Cyalume light onto my vest, John gave me a flashlight, and we were off.  I felt a little like what it must have been like on the Titanic, getting into lifeboats in the inky blackness.  We roared off, using a powerful light to see the buoy.  The water around the buoy was teeming with large fish, mostly mahi.

This buoy had been damaged and Patrick Ahearn, the Chief Scientist would be making the necessary repairs.  Sometimes, they say, other ships hit the buoy, or fishing boats tie up to the buoy.  This was the first time the sea had been relatively calm, and it seemed a good thing, since higher seas would make a repair job much more difficult, like working on a bobbing cork.  Patrick swung out onto the buoy, follwed by Nicole Colasacco, the Field Operations Officer who would assist him.

In the meantime,  we sped back to the KA to pick up replacement instruments, a new rain gauge, a new anemometer, and a new temperature sensor.  The ship seemed a long way off, but all of its running lights were on.  I thought about how it must have felt for Patrick and Nicole to be all alone in the dark on that buoy while we went back to the ship.

As soon as we returned with the instruments,  Jimbo set out fishing lines and we bagan to troll.  We spent a good 45 minutes circling the buoy, but got nary a bite.  Maybe it just wasn’t feeding time.  As our eyes got our night vision, we could see the sparkling of bioluminescent creatures in the water all around the boat.  The skies were cloudy, so stargazing was out, and eventually it began to rain.

Finally, they were finished with the repair job, and it was my turn to get out onto the buoy.  I already knew that the donut would be slimy and slippery, and it was.  There are several platforms, though, that afford good footing inside the bars of the instrument scaffold.  By the time I was up on the buoy, the swells had picked up a little, and actually, there was a terrific current pulling on the buoy.  It was a little like riding a bucking bronco!

We were out on the buoy operation until well past 11 last night, but I was so glad I hadn’t missed my last chance to get on one of the buoys.  The fish weren’t biting, so we came away empty  handed, but they’ll be other fishing opportunities as we start the long transit back to Honolulu.  Since we have to go right past South Point on the island of Hawaii, there is a chance that students from my school may get to see us, and I’ll keep you posted on exactly when that will be.

Question of the Day:  What is the chemical formula for carbonic acid?

Aloha from the KA!

Nancy Lewis

Nancy Lewis, September 17, 2003

NOAA Teacher at Sea
Nancy Lewis
Onboard NOAA Ship Ka’imimoana
September 15 – 27, 2003

Mission: Tropical Atmosphere Ocean (TAO)/TRITON
Geographical Area: Western Pacific
Date: September 17, 2003

Plan of the Day:

0900:    Recover/Deploy 5 S 140 W Buoy
CTD after anchor drop
AOML Drifter after buoy flyby

Weather Observation Log:  0100

Latitude:  5 degrees, 2′ S
Longitude:  139 degrees, 54.7′ W
Visibility:  12 nautical miles (nm)
Wind direction:  090 Degrees
Wind speed:  21 knots (kts)
Sea wave height:  4-6 feet
Swell wave height:  7-9 feet
Sea water temperature:  26.8 degrees C
Sea level pressure:  1012.7  mb.
Dry bulb temperature:  27.1 degrees C
Wet bulb temperature:  23.8 degrees C
Cloud cover:   2/8 Cumulus

Science and Technology Log

The primary mission of the KA’IMIMOANA is to service and maintain the TAO/Triton array of weather buoys strung out along the equatorial Pacific Ocean. TAO stands for Tropical Atmosphere Ocean and Triton is the name of the Japanese component of the array.  These buoys are jointly maintained by Japan and the U.S.  in an effort to better understand how the oceans affect climate and weather, especially in the regions close to the Equator.

Today I was able to observe first hand the entire operation of retrieving and deploying what used to be called the Atlas buoy.  They are now designated as TAO buoys. These buoys are placed at strategic points north, south and on the Equator.  The first leg of this mission began in Honolulu on August 21, 2003.  Honolulu is the home base port for the KA’IMIMOANA, which I hope you all know means “ocean seeker” in Hawaiian.

OLYMPUS DIGITAL CAMERA
TAO buoys are jointly maintained by Japan and the U.S. in an effort to better understand how the oceans affect climate and weather, especially in the regions close to the Equator.

Tetsuro Isono from JAMSTEC (Japan Marine Science and Technology Center) was on board as part of the Teacher at Sea program for the first leg from Honolulu to Nuku Hiva.  You can access his broadcasts on the NOAA Teacher at Sea website.  Although he was speaking Japanese, an English translation can be printed out for you to follow. In his broadcasts, Tetsuro interviews many of the scientists on board and introduces much of the equipment and buoys that are used in this project.  It would be very helpful for you to view these broadcasts in order to get a working background for the buoys and their operations, but I will also be giving explanations during the project.

The first thing in retrieving the buoy is that is that it is sighted from the bridge of the ship. These are moored buoys, so they remain in position where they are placed. Once the buoy is sighted, the RHIB (Rigid Hull Inflatable Boat) is lowered from the ship, and a crew is sent out to visually inspect and to remove some of the instruments that would be damaged during the retrieval process.  The anemometer, rain gauge, and Patrick Ahearn, the Chief Scientist and one other “volunteer”.  The buoys are usually very slimy and slippery having been out in the ocean for a period of several months, so climbing on the buoy can be a dangerous affair, especially if there are significant waves and swells.

OLYMPUS DIGITAL CAMERA
lowering the Rigid Hull Inflatable Boat (RHIB)

One of my students has asked the question:  “What information is gathered by the buoys?” The buoys gather data constantly on the following:  wind speed and direction, air temperature, relative humidity, rainfall, downwelling shortwave radiation, downwelling longwave radiation, barometric pressure, sea surface and subsurface temperature, salinity, water pressure, and ocean currents.  You can find more details about the instruments for measuring these variables at this website:  http:www.pmel.noaa.gov/tao/proj_over/sensors.shtml.  The data is transmitted via NOAA polar satellites and is actually picked up by computers located on Wallops Island.  This information is used by scientists all over the world who are studying the Pacific Ocean and its relationship to weather and climate, particularly the El Nino and its opposite La Nina.  I will be talking more about these as the cruise progresses.

After the buoy was retrieved, a replacement buoy was deployed.  I will be posting pictures on the website of the marine life growing on the bottom of the buoy, and it must be cleaned, painted and otherwise serviced before it is used again.  The process of retrieving and deploying a new buoy takes approximately 8 hours, as many meters of cable must be spooled on board, and it is amazing to watch this crew work together to bring it all off.  It is a well orchestrated event that I will do more to explain as we go along.

Lewis retrieved buoy
The retrieved buoy must be cleaned, painted and otherwise serviced before it can be used again.

Personal Log

Today was a full day indeed for me, and thankfully I was over my initial seasickness.  The opening act of the morning was my first ride in the RHIB to go out to the buoy.  You can see from the weather observations that it was by no means calm seas, so the ride out to the buoy was pretty exciting.

I was then put to work helping to spool the Nilspin cable which attaches the mooring to the buoy.  The spooling operation takes a long time, and even the XO (Executive Officer) joins in to help.  I observed the entire retrieval and deployment operation, and it basically took the whole day.

After dinner, I began training with Randy Ramey, the Survey Technician in charge of the CTD’s.  I was actually involved in every aspect of the operation under Randy’s expert guidance and Tom Nolan, the scientist from NASA was also on hand.  I will save an explanation of the CTD for another day, but this instrument is really fascinating to me.

It has been a long and exciting day, but very satisfying. I am still learning my way around the ship and getting used to the shipboard schedule  I would like to invite anyone who is looking at the website to e-mail your questions to me, which I can include the answer to on my daily logs. Before I close, let me pose a question for you: What is the Doppler effect?

My thanks go out to my colleagues and students at Na’alehu Elementary and Intermediate School for helping to make this project a success, and I wish you all a fond Aloha!

Nancy Lewis

 

 

Diane Stanitski: Day 19, August 19, 2002

NOAA Teacher at Sea

Diane Stanitski

Aboard NOAA Ship Ka’imimoana

August 16-30, 2002

Day 19: Thursday, August 29, 2002

The FOO (Field Operations Officer)’s quote of the day: 

“The art of art, the glory of expression…is simplicity.”
– Walt Whitman

Weather Log:
Here are our observations at 1600 today:
Latitude: 4°59.00’S (into the Southern Hemisphere!)
Longitude: 139°49.2’W
Visibility: 12 nautical miles (nm)
Wind direction: 95°
Wind speed: 12 kts
Sea wave height: 3-4′
Swell wave height: 5-6′
Sea water temperature: 27.3°C
Sea level pressure: 1009.3 mb
Cloud cover: 2/8, Cumulus

Science and Technology Log:

I awoke early to be sure that I could hop on board the RHIB when it was ready to depart for our next buoy retrieval. John K. wanted to try something new…a live broadcast from the RHIB while he filmed from the ship. I suited up with a life jacket, hard hat, radio, microphone, and cameras. This would be a challenge. As it turned out, Larry, our electronics technician who assists with the technology end of the broadcast, and John could only hear me for a short distance away from the ship. John, however, caught the entire scene on camera. Upon arrival at the buoy I jumped on to it after Dave Zimmerman and asked him questions while he was dismantling the instruments so they didn’t break while the buoy was being retrieved. It was so much fun. There appeared to be quite a few barnacles and algae (very slimy) built up below the waterline on the buoy.

We then hopped off and drove back to the ship where we finished the broadcast. Ensign Sarah Dunsford then joined me and described the entire retrieval procedure from the boat deck of the ship looking back at the fantail. She did an excellent job.

We decided to hold off on the shooting of our general broadcast so that we could all pitch in to assist with the spooling of the cable as it was brought up from over 4000 meters of depth. This takes a few hours and I helped by turning one of the spools while the nylon cable wrapped around loop after loop. In between spools I helped Nadia with the barnacle removal. We scraped the entire buoy clean.

Someone then shouted that whales were spotted off the stern of the ship and I ran back to see if I could find them. There they were!!! I was told that there were ten of them, but I only saw about five. They were pilot whales, not too large – perhaps 12′ long – but still very beautiful as they swam through the water. What a treat!!! We completed the retrieval and went into the mess to eat lunch.

The afternoon consisted of conducting interviews during our final general broadcast from on board the ship. We are hoping to complete additional broadcasts from Nuku Hiva, if possible, and to shoot video footage in Tahiti at the Meteorological station. This was a fun broadcast. We interviewed Takeshi from France who played his flute and said a few words in French, Nemo who described his duties on the ship and showed up how to tie a few important knots, and Mike Strick who can often be found assisting in the kitchen as well as on the fantail – he does it all! The broadcast ended with the deployment of the buoy that would replace the one removed earlier today. A great day in my book!

Personal Log:

I began taking photos of all the people on the ship today. I don’t want to forget any of them as I leave this ship and sail back to my life in Shippensburg. It’s the little things that people do along the way that make all the difference, isn’t it!? During one of the CTD casts to 1000 meters, Jason Poe helped me miniaturize and mold a group of styrofoam cups that I could bring back to my family, friends, and students. Doug McKay (Nemo) assisted many times when I needed a hard hat or life jacket at the last moment in order to be able to experience something on the ship. Fred Bruns provided insight, feedback and tidbits of history about the ship. Larry Wooten was always ready to help with any technical problem that arose, no matter the time of day or night. Paul Freitag answered an unending array of questions that I had about the science on the ship. John Kermond, of course, was always there with new ideas and ways to make my experience the most exciting and informative possible. All of the officers on board cooperated during each of our broadcasts and permitted great flexibility so we could produce interesting and educational webcasts for all of you. I could go on and on…and probably will tomorrow during my final day on the ship while it’s at sea.

Takeshi taught one last French lesson tonight just after dinner while watching the sunset so that we would be prepared for arrival in Nuku Hiva. Most people are ready to see land before they complete their journey by ship, taking them back to Honolulu in the next few weeks. Six of us will depart in Nuku Hiva. I look forward to an opportunity to explore the island and to shoot more footage to be used in our videos on the web. After another productive day, it’s time for bed.

Question of the day: Name two of the instruments that are placed on the buoys at sea, and state what they measure. Email me one last time with your response. If you’re the first person to respond and I receive your answer early enough tomorrow, I might be able to include your name in my final logs.

Last full day at sea…
Diane

Diane Stanitski: Day 15, August 25, 2002

NOAA Teacher at Sea

Diane Stanitski

Aboard NOAA Ship Ka’imimoana

August 16-30, 2002

Day 15: Sunday, August 25, 2002

The FOO’s quote of the day (I really like this one!):

“Let your dreams run wild and free and always follow where they lead.” – N.E. Foster

Weather Log:
Here are our observations at 2200 today:
Latitude: 1°31.9’N
Longitude: 140°00.5’W
Visibility: 12 nautical miles (nm)
Wind direction: 120°
Wind speed: 12 kts
Sea wave height: 3-4′
Swell wave height: 4-5′
Sea water temperature: 27.3°C
Sea level pressure: 1011.7 mb
Cloud cover: 3/8, Cumulus

Hurricane Fausto is slightly diminishing in strength, but is still maintaining winds at 90 kts, gusting to 110 kts. It is currently located at 18°N, 125°W and is moving northwest. Another tropical depression has formed at 11.5°N, 148°W and has maximum sustained winds at 30 kts with gusts to 40 kts. It is expected to gain strength and move into the tropical storm category. We are definitely not in danger of being impacted by either storm because they require Coriolis to form or to be sustained. Coriolis is negligible at the equator so we’re safe!

Science and Technology Log:

This has been my favorite day of the trip so far! I awoke hurriedly at 5:50 AM and ran outside with my hard hat and life jacket. We were taking the RHIB (once again, the rigid inflatable boat) out to retrieve our first buoy. Earl, Dave, Paul, Doug and I rode toward a gorgeous sunrise, removed sensors from the buoy, and then hooked it to a line to drag it in toward the ship. What an amazing morning! It all started there. As soon as the buoy was lifted onto the dock Nadia and I began removing barnacles from the bottom of the frame. The barnacles were still alive with their legs appearing and disappearing within their hard shell. They stick to the mast, buoy, and inner flotation device in clumps. At this point, I am filthy, smelly and loving every second. The barnacles are full of sea water which occasionally bursts and runs down your arms as you work over your head. I’m sure I’ll smell like fish for the rest of the day. The retrieved buoy was then power washed to remove the salt water, algae, and remaining barnacles parts, and to prepare it to be deployed again later during the trip.

I then helped pull in the 4300 meters of nilspin and nylon cable by taking over one of the spools where I turned it around and around as the cable draped over the top. Fun, and tiring! Just as we finished with the last spool, Doug, the XO, decided to fish off the back of the ship. You should have seen the amazing fish swimming all around the fantail of the boat… mahi mahi, and every beautifully colored huge fish that you can imagine! A blow hole was spotted by the FOO earlier, sure signs of a whale nearby. I also saw a huge fish jump out of the water, but couldn’t identify it. The fish all hang out around the buoy because of the barnacles (food) and the shadow created by the buoy, thus creating a small ecosystem in the middle of the Pacific. Suddenly, Doug caught something! He had to keep reeling in the line until he pulled a wahoo on board (ono in Hawaiian, meaning sweet). It had unbelievable colors of green and blue and was shiny with stripes. It had a cigar-shaped body, pointed head, and triangular teeth, with a long dorsal fin separated into 9 segments. Nemo brought it into the shade, pierced its neck, and then returned to the fantail where he caught two beautiful yellowfin tuna – WOW! They were shaped like a football, were beautifully iridescent with yellow, gold and blue across their bodies and fins tinged with yellow. The fins were very long. We feasted on sushimi tonight at dinner, raw tuna fillets with wasabi and soy sauce – scrumptious! We also had baked ono (wahoo) with spices. YUM! Thanks, Doug and Nemo!

We then all worked to prepare the nilspin (cable closest to the buoy) for the next buoy deployment by placing fairings on the cable. Fairings are plastic sleeves that are rectangular and slide onto the cable to provide more friction with the water. This alleviates great movement of the cable that usually happens due to strong ocean currents at this latitude. We are so close to the equator that the equatorial countercurrent makes a huge difference in the movement of the subsurface line. It was like an assembly line with me lifting each fairing out of a garbage can, handing each one to Dave who opened it and slide it onto the cable. Then, Paul used a mallet to secure it on the line while Jon held the cable in place so it didn’t drift off the boat. We must have placed hundreds of them on the line while it was being pulled out to sea by the new buoy that we just deployed (see photo log for pictures of the buoy retrieval and deployment). In the end, it took about 3 hours for the nearly 5000 meters of nilspin cable and nylon cable to be unrolled and pulled by the buoy out to sea. The buoy was floating about 4 km away from the ship by the time the cable was unraveled. You could just see it on the horizon. The crew then dropped two massive anchors (old railcar wheels) into the sea, which sunk and pulled the cable down while pulling the buoy into place above. The entire procedure is a real sight to see because of the crew’s efficiency…truly impressive.

Before dinner, John and I sat down and completed the script for tomorrow’s broadcast, however, things might change because we will be starting the science on board at the same time our broadcast is supposed to air live (9:00 AM ship time). We may have to change the show’s schedule if something exciting is happening on the ship that might be of interest to all of you. Flexibility is key to it all, I’m told.

Personal Log:

After a workout, shower, and dinner, John shot some footage of me on the bridge deck summarizing my experiences thus far, and describing what’s yet to come during this next week. The sunset was outstanding again. There were many clouds and they created these streaming rays of bright yellow light from the setting sun down to the Pacific. I could easily watch this every night.

I’m going to finish my logs and head straight to bed. This was truly the most outstanding 24 hours of the entire trip. I am so lucky to be here and can’t believe that we’re heading to the equator tomorrow!

Question of the day: 

What does TAO stand for and what is the goal of the project?

My favorite day of the trip so far…
Diane