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Marine Biological Hall Of Distinction: Professor Anders Sandøe Ørsted This article is a part of our collection known as the Marine Hall Of Distinction. It is a different series from our main monthly series & has no connection to the main monthly series. In this special collection, we will discuss marine biologists who have served marine biology & oceanography the most. We do this to commemorate these marine biologists & to show gratitude for everything they have contributed to our oceans. This collection has no relation to the main monthly series. This series is published on the 25th of every month, shortly after our article on the oceanic environment of a certain region on the 20th.  Today’s marine biologist is the accomplished Danish Marine Biologist, Anders Sandøe Ørsted. Anders Sandøe Ørsted, or Anders Sandøe Oersted, was a Danish Botanist, Marine Biologist, Naturalist, Zoologist, & Mycologist.  He is well known for his research on Nematodes in the Arctic, & the hundreds of plant taxa he described. His primary field was botany, and he worked as a professor for the University of Copenhagen. In addition to his scientific career, he was decently known for his relationship with a politician that he shared a name with, Anders Sandøe Ørsted. The second Ørsted was Anders’s uncle, & the Prime Minister Of Denmark from 1853 to 1854. This, however, wasn’t the only notable relative of his. Another of his uncles, Hans Christian Ørsted, was an incredibly influential physicist & chemist. Hans Christian Ørsted is well known for discovering that electrical currents create magnetic fields, which led to the formation of Ørsted’s Law. This also led to him having a unit of magnetic field strength, the Oersted, named in his honor.  In this article, we will be discussing the formative years & education of Anders Sandøe Ørsted, the personal life & career of Anders Sandøe Ørsted, & the awards, achievements, accomplishments, & honorables of Anders Sandøe Ørsted. With that being said, let us delve into this interesting Danish Marine Biologist, & Botanist. The Formative Years & Education Of The Anders Sandøe Ørsted Anders Sandøe Ørsted was born on June 21st, 1816, in Rudkøbing, Denmark. Unfortunately, very little is known about his childhood or his Education. The Personal Life & Career Of Anders Sandøe Ørsted  At the beginning of his career, Ørsted traveled the Arctic to study Nematodes, a kind of worm. He published multiple papers on these Arctic Nematodes. Later on, he would study the density & zonation of marine algae in Øresund, a strait between Denmark & Sweden. In 1845, Ørsted traveled extensively through Central America, & the Caribbean to study the plant life in the regions. He had a focus on the families Acanthaceae, & Fagaceae. He continued his travels until 1848. In 1851, he was appointed as a Professor of Botany at the University of Copenhagen, a position which he held until 1862. During his professorship, he mentored esteemed ecologist Eugen Warming.  Across his career, he described hundreds of plant species, the majority of which are still in use today. His research is still highly relevant to this day, with over 100 papers using his taxa in some way.  His contributions to biology, ecology, botany, & marine biology will not be forgotten, or neglected. The Awards, Achievements, Accomplishments, & Honorable Of Anders Sandøe Ørsted He collected or identified approximately 1,970 species of various plants, fungi, & marine animals.  Directories / Credits  Citation No. 1: “Anders Sandoe Oersted”, Written by Unknown, & Published at an Unknown Date. Published by The Virtualology Project. Retrieval Date: August 25th, 2024.  http://famousamericans.net/anderssandoeoersted/ Citation No. 2: “Ørsted, Anders Sandø (Professor)”, Written by Unknown, & Published at an Unknown Date. Published by Conchology. Retrieval Date: August 25th, 2024.  https://www.conchology.be/?t=9001&id=90978 Citation No. 3: “Anders Sandøe Ørsted”, Written by Unknown, & Published at an Unknown Date. Published by Binomia. Retrieval Date: August 25th, 2024. https://bionomia.net/Q491270 Strategic Partnerships Reel Guppy Outdoors SharkedSkooler  Marine Enthusiasts Podcast Our Loyal Patrons  Ms. Paloma Rodriguez Ochoa

The Oceans Surrounding The Island Of Nanumanga, Tuvalu  Todays article shall be to discuss the oceans surrounding the island of Nanumanga, Tuvalu. Nanumanga is an island in the South Pacific, it belongs to the country of Tuvalu. It has a very small population as it is only 1 square mile in total. There are approximately 491 people  who inhabit the island. It is approximately 3556.56 Nautical / Marine Miles (4092.816154 miles or 6586.74912 kilometers) from mainland Asia, specifically the country of China. It is also approximately 1706.54 Nautical / Marine Miles (1963.851159 miles or 3160.51208 kilometers) from Australia. The island is known for their beautiful coral reefs & scuba diving experiences. The country of Tuvalu is most well known for being built on massive coral atolls, with a large percentage of their ocean having some presence of living coral. This attracts many other marine species which in turn diversifies the area. The area also has a quite favourable climate, with it being quite warm for the entire year. The oceanic temperature changes very slightly through the seasons, so this may attract species that require lots of prey as prey will be available year round. The species that are attracted, form new ecological structures & make others more feasible, an example where this is seen is seagrass meadows. The oceans have many small scattered atolls in the region that belong to Nanumanga. Atolls, are a kind of ring shaped coral reef that protrudes from the surface of the ocean, or a ring shaped island with a coral rim. This shows that the coral is healthy enough for these atolls to be sustained. There are dozens of many small islets that exist around the island. The oceans are also very clear & as pollutants are not very present in most areas. For this reason, many recreational activities commonly take place along the surface, such as swimming, kayaking, scuba diving & snorkelling, & surfing. In this article, we shall be discussing the salinity, tides, temperatures, marine geography, & basic Information about the oceans surrounding Nanumanga, the most prominent marine ecosystems of Nanumanga, the documented marine flora & fauna of Nanumanga, & finally how the marine resources of Nanumanga were utilized & how ocean acidification has affected Nanumangas ecological health. With that being said, let us delve into this reef island paradise. The Salinity, Tides, Temperatures, Marine Geography, & Basic Information Of The Oceans Surrounding Nanumanga, Tuvalu Unfortunately, the exact salinity of Nanumanga or Tuvalu has never been measured. Since Nanumanga rests in the Pacific ocean, it has a lesser salinity then the Atlantic. Salt deposits or brine pools have not been proven to be found around the island in higher concentrations then other areas. However, this could change. Since the average salinity of the water in the southeastern Pacific is 35 parts per thousand at any given time, it can be assumed that the salinity level is somewhere around that. Salinity is measured in 1,000 grams. For every 1000 grams of water there will be a certain number of grams that are pure salt. There are also zero current on going factors that would affect the salinity levels in such a harsh way that the salinity would change. The temperatures can be found on a plethora of webpages but the best for navigation, are https://www.tideschart.com & https://www.meteoblue.com .  The oceanic temperatures for Nanumanga go between 76° Fahrenheit & 85° Fahrenheit (24.4444° Celsius to 28.3333° Fahrenheit). The tides go can also be found on said webpage & usually don’t reach higher then 2.1 meters (6.88976 feet). There is a high riptide so it is important that you stay safe in order to not get sucked out by the current. There are no randomly forming currents other then the harsh riptide. This makes it very good for surfing as waves reach somewhat high. It is unknown what the deepest oceanic point within 5 Nautical / Marine Miles of Nanumanga is. There are very few sea mounts within close proximity of Nanumanga. There sea floor around Nanumanga largely consists of Coral & Sand.  The Most Prominent Marine Ecosystems Of Nanumanga, Tuvalu  Fringing Coral Reefs Fringing coral reefs are the coral reefs that are found along the coast. These are the coral reefs that are not coral islands. These coral reefs are the most attractive to fish & other marine species. This is because the fringing coral reef provides a hunting ground, fish nursery, & home for many species. It acts as a refuge for thousands of species. It is one of the most important marine ecological features of Nanumanga. These fringing reefs are found scattered around the coast line. They do not have 1 specific area around the island. It is unfortunately, unclear as to what exactly the coral species are. These fringing coral reefs, may also completely line the coasts to the point where the island is considered a “Reef island”. Nanumanga is at that point. Specifically, Nanumanga has beautiful & colourful coral reefs.  Coral Atolls Coral atolls are circular coral reefs that encompass lagoons. Tuvalu has very many of them, the majority of them are near Nanumanga. These coral reefs are usually very small & do not protrude farther then a few feet. There are currently 6 atolls in Tuvaluan jurisdiction. These atolls were largely formed by oceanic volcanoes. These atolls usually are somewhat polluted, as the above ground areas are some of the only places were Tuvaluans can live. By them moving in, they begin polluting the area. Atolls are usually not found directly off the coast of another island.  Seagrass Meadows Seagrass meadows often embellish coral reefs. Seagrass meadows are large amounts of seagrass forming patches or meadows. These are fairly common as seagrass congregates in the area due to the favourable conditions. These areas are most commonly fish nurseries as fish will lay their eggs in these areas. These areas can be coastal or further out. These areas are extremely delicate as they do not have a hard exterior like the coral reef. The actual species of seagrass that make up these coral reefs will be discussed in the subsection below known as “The Marine Fauna Of Nanumanga”.  The Documented Marine Flora Of Nanumanga, Tuvalu There are very many different species of marine flora found around Nanumanga, many of which are foreign. During an assessment, it was discovered that there are algae approximately 59 species of algae from 4 different Phyla. It is unfortunately, unknown what exact species of seagrasses there currently are on the island. The Marine Flora unfortunately, is very under documented. There also is a semi-small patch of mangrove forest near Tonga which is the main village on the island. The main mangrove tree species found there is known was Rhizophora Styloza (Small-stilted mangrove). Since Nanumanga is a very low island, these trees are sinking & so is the land. This puts them at a great disadvantage & soon most likely, these mangrove forests will no longer exist.  The Documented Marine Fauna Of Nanumanga, Tuvalu  The marine fauna of Tuvalu is strange & expansive, so for the purpose of this article we will not be discussing plankton or things of that nature. One of the main creatures found around this island is known as the diamondback squid, who we covered in the article prior to this one. Since the island had many coral reefs & a stable temperature year round, it attracts many species seeking favourable climate & food. Many of the creatures are migratory & will migrate to other islands & back, this is for the purpose of catching food usually. The locals on the island also make sure that the island stays relatively unpopulated so this keeps the ecosystems undisturbed. Also since the population of this island is very low the pollution output from the locals is minimal. This specific island does not have much to offer other then fishing. What is meant by this, is that there are not many other marine resources to utilize, other then the wildlife. The island also does not have much of a harbour, so boat emissions are minimized as well. There have currently been 12 species of Cetaceans spotted in Tuvaluan waters. There have been a total of 69 main marine species spotted in this specific area, many of which are predatory sea snails belonging to the genus “Conus”.  How The Marine Resources Of Nanumanga Were Utilized & How Ocean Acidification Affected Nanumanga’s Ecological Health  Many of the marine resources that have been taken out of Nanumanga, have been fish. Fishing is a somewhat common practice around the island. These are usually personal fisherman rather then commercial fisherman. This causes a population decrease, however it also causes a different issue. This issue is that when a species decreases in population, its prey is no longer as likely to be eaten. This causes the prey population to increase, which can cause issues. A good example of this happening is the crown of thorns environmental disaster on American Samoa, which is just a few islands away. Ocean acidification has also affected the coral reefs around the island. Ocean acidification is caused by increased levels of carbon dioxide in the atmosphere.  Atmospheric carbon dioxide levels have increased, largely because of human-caused burning of fossil fuels, & deforestation, for the past 150 years.  When carbon dioxide contacts sea water, it forms carbonic acid.  Carbonic acid gives off positive H+ ions, which causes increased oceanic H+ concentrations & decreased oceanic Ph. This PH difference, is causing coral to bleach at a rapid rate. This is devastating the coral reefs of Nanumanga & surrounding islands.  Directories / Credits https://www.sciencedirect.com/science/article/pii/S0025326X21003428 https://spccfpstore1.blob.core.windows.net/digitallibrary-docspdf Strategic Partnerships  Reel Guppy Outdoors Our Loyal Patrons  Ms. Ochoa

Ode To Oceanography: A Nautical Chart of The Western Pacific Ocean This is the fifteenth article in the Ode to Oceanography Series. This series will publish on the 15th of every month, until we run out of antique nautical maps to analyze, though that will not be for many decades. Once that happens, we will keep the series running, but we will change the article format. In these articles, will take an antique nautical map & analyze it in its entirety. These maps will not strictly be on open oceanic waters, they may be on rivers or occasionally, bays. We will also discuss the methods that may have been used to make the map, considering the period, & the country of origin. These maps will come from a variety of sources, though they will mainly come from Maps Of Antiquity, a wonderful New England map shop. These maps will come from varying periods, & will not be in any particular historical order. Today’s map is an antique map of the Western Pacific Ocean. Our map shows the south of Japan, the eastern tip of China, & the northern tip of Papua New Guinea. The map covers an area of approximately 2,300 nautical miles. The map has some slight moisture damage in the upper right portion of the map, & creases in the center & lower area of the map. This, however, doesn’t distort any of the information on the map, & overall the chart is still in a premium condition. The chart is approximately 49 inches high, & 40 inches wide. In this article, we will discuss the map itself, the translation of certain sections of the map, & analyze this antique nautical map. With that being said let us delve into the Western Pacific Ocean.  The Map Itself As the chart is in English, there is no need for translation. The chart is uncolored, & has the names of various cities, towns, & settlements on it.  An Analysis Of The Map This map was created in 1864, by the famous Scottish cartographer & hydrographer pair James Imray & James Frederick Imray. James Imray was the father of James Frederick Imray. The map was created & published in London. This map was made available for purchase by Maps of Antiquity. It is unclear whether or not the map is a part of any particular collection. The map has many different islands across it, & a few different sea routes instructing sailors how to get between said islands. There are no major topographical features outlined other than the ocean, & the islands. The island is very accurate, & there are very few islands missing from the chart. The chart is not centered around anything in particular. It was not made for militaristic purposes, & was only intended for informal use. This map was most certainly made via the lithographic process, due to its maker, & the time that it was manufactured. The lithographic method was most popular for map making between the early 1820s, & the 1910s. In the lithographic method, the artist will draw directly onto a printing surface, such as zinc, or copper, until they are satisfied with the drawing. After this, the surface will be covered with a chemical etch, which will bond it to the surface. With this process, the blank areas will attract moisture to the plate & repel the lithographic ink, while the areas that are drawn on will hold the ink. Water is then wiped onto the unpainted areas to help prevent the ink from deviating. After the map wanted is inked, the paper is laid over it & covered with a tympan, & the tympan is pressed down. Finally, these materials pass through the scraper bar of the litho press. Afterward, an exact copy of whatever was supposed to be printed is revealed. Directories / Credits All credit for this map analyzed today goes to Maps Of Antiquity, a wonderful New England map shop. To purchase this map, any other maps, or any other cartographic objects, please visit mapsofantiquity.com . To be clear, this is not an advertisement for Maps Of Antiquity, as we do not have a partnership with them. with them. Strategic Partnerships Reel Guppy Outdoors SharkedSkooler Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

“Using Colour To Talk”, An Interview With Squid Biologist, Science Communicator, & Nonprofit Founder Dr. Sarah McAnulty Today’s article is very special, as it contains an interview with Squid Biologist, Science Communicator, & Nonprofit Founder, Doctor Sarah McAnulty! Our main writer interviewed with this intriguing Squid Enthusiast on September 11th, 2024. Doctor Sarah McAnulty is well known for her Squid & Cuttlefish Research, Founding of the Skype-A-Scientist Project, & courses with Atlas Obscura.  In this Interview, we ask 20 impactful questions, & get many insightful as well as intriguing answers. Before reading the article, please note that all of these answers are paraphrased & are not exact quotations. With that being said, let us delve into the Contents of the Interview.  The Contents Of The Interview How Did You Become Interested In Marine Biology? I grew up right outside of Philadelphia which is not on the coast, however it helped. I got interested in marine biology by going to the library a lot as a kid, as I was very interested in Dinosaurs. One day, I took a VHS tape out of the library that was a National Geographic Kids Tape called “Really Wild Animals”, which was all about the ocean. About halfway through, they began discussing Cuttlefish, which are very very closely related to Squid.  I was interested in them because of how cool & weird they were, & fascinated by how they changed colors so quickly. I became kind of obsessed then, & wanted to figure out how to become a Marine Biologist. 2. Was there a specific moment, person, or place that helped to spark your interest in Marine biology? Probably that National Geography Kids Tape. I guess the person & the moment that I truly realized this was possible was at Boston University when I was getting my undergraduate degree in biology was during a Lecture Series in the Marine Sciences Department. The person who came to do the guest lecture’s name was Lydia Mäthgur, & she worked on cuttlefish! I went to her talk, & I couldn’t believe someone had that job, & realized that that was the job that I wanted to have. After the talk, I went up to her & told her “Hi I’m Sarah, you have my dream job, how do I get involved or work at your laboratory?”. She responded with “Well, you’re kind of young to be working in our laboratory, why don’t you apply next year? You can work with me & the scientist who works above me, Roger.”. I thought about it & wanted to apply for the job sooner, so I found out where Roger, the head of the laboratory, was giving a talk, & decided to go. He was giving a talk at Brown University, so I decided to take the day off from school & take the 45-minute train ride to Brown, & talk to Roger directly. So that is what I did, & he told me “Well you’re a little young, but you can apply if you want to”.  So I wrote this deranged cover letter explaining “If you don’t hire me this year, you’re just going to hire me next year, so why waste our time?”, which in retrospect was a very silly thing to do, but it worked, & they hired me!  3. What was your first major research project? My first research project at the laboratory was figuring out what pattern cuttlefish decide to put on their backs. So we would put them in these checkerboard arenas & figure out what size of checkerboard causes them to switch between the most common patterns. I suppose my first research project that I was involved in was at all was during my Freshman year of College.  There was a project looking at different populations of these fish called Sand Lance, which are these little fish that a lot of animals eat including Humpback Whales. My job was counting the scales on the sides of Sand Lance to figure out if there were 2 morphologically different populations off the coast of Massachusetts, which was boring. I was also doing Fish Gut analysis on old frozen fish organs, & trying to figure out what the fish had eaten. 4. What attracts you to Squid & how did you discover your passion for them?   I think Squid are so interesting because they have such complex communication systems & behaviors, but they diverged from us evolutionarily so long ago. Over 600 million years ago is the last common ancestor between us & them.  So I think that we have this cool opportunity to look at an animal that evolved on Earth but evolved as independently as another animal could evolve from us. We can see how complexity evolved similarly, like our eyes are very similar to their eyes, or differently with their communication systems. We are using sound to communicate right now, whereas they can’t hear all that well. Some species of cephalopods can hear, but their hearing is not great. They are using color to talk, which I think is just so cool.  5. What is your favorite species of Squid? I have 2 favorite species of Squid, & I can’t pick one because they are both so weird & lovely, but in much different ways. My first favourite squid is the Caribbean Reef Squid (Sepioteuthis sepioidea), I like them because they are really easy to get to. They live around Florida & throughout the Caribbean. They are curious, rainbow-colored, & we have a really good understanding of their color communication system. We understand them pretty well compared to other species of Squid. My other favorite squid is the Magnapinna Squid, they live the deepest of any Squid. They are the best! They are such strange animals, they are so creepy. I adore their freakishly long legs.  6. Do you have a favorite attribute about Squid? I like that they have Donut Shaped Brains. You know, I drive the Squid Mobile, I’m fairly identifiable as the Squid Lady, so sometimes people will just yell “Hey give me a Squid Fact!”, & I’ll yell that Squid’s have donut-shaped brains.  One of my other favorite things about Squid that I like to tell people is about this species of Squid called Grimalditeuthis. Grimalditeuthis is a deep sea Squid & what is strange & interesting about them is that a Squid has 8 arms & 2 tentacles, with their tentacles typically only have suckers or hooks at the end. However this squid has a modified tentacle club, that looks like a miniature Squid. So they will puppet that Squid around to attract food, & when something attempts to attack the little Squid, they will attack & eat that animal. 7. How did you get your idea for the Squid Mobile? The year was 2017, & I was scrolling on Twitter to talk to the other scientists on there. So I saw that one scientist had put a piece of construction paper on their back car window, & it said “Have a question for a scientist? Email yourneighbourhoodfriendlyscientist@gmail.com .”. I kind of loved that, because you don’t have to follow a scientist on social media for people to know that & access that. I wasn’t sure if it would work, but I wanted to try it anyway. So I turned my car into the Squid Mobile, & I believe I put a piece of paper saying “Have a Question? Email thesquidscientist@gmail.com ”.  Then I realized that I’m asking people to have a question about Squid, & then they need to remember my email address to send me & email. I realized that was kind of a lot of steps to go through, & that I needed to make this easier. That was when I developed the Squid Facts Hotline.  I then changed it to “Ever wonder about Squid? Text this phone number”, & that is when things began to pick up. I later changed it to “Want a Squid Fact? Text Squid to this phone number.”. At the time it was a Google Voice Phone Number, & I was individually replying to everyone.  At some point I was having 10 different conversations every single day & realized it was too much, so I switched to a robot, & now a robot texts everybody back.  8. Do you have any more plans for the Squid Mobile? I added some Squid recently that will hold up against the winter salt a little better. A friend of mine, Meg Mendlin, an octopus biologist, printed them out & sent them over to me. I like the homemade look of the Squid Mobile, I think it makes it look even more weird & approachable.  I think one of the real problems we have as scientists is that people think that we are so smart that we are not approachable, & that we are intimidating. So, I think making myself quite silly, relaxed, & homemade-looking, really helps. 9. How many Squid are currently on the Squid Mobile?  About 15 to 20 Squid, the majority of which are hand-drawn.  10. How did you get the idea for your “Squid’s Across America Tour”, & how many speeches did you give on it? At the time I was writing my Phd thesis, & when you are writing your Phd thesis you are sitting in a room for months at a time just writing & researching. I was bored & sort of antsy, & I knew I would be graduating soon. So I put out a message on Twitter stating “Anybody want a talk on science communication or my Squid Research this fall? Here is a general circle of areas I intend to go, if you are in that area please message me”, & 50 people reached out from that. I asked for payment from these people, which whittled it down to 30 groups.  I mainly spoke to University Departments & Nonprofit organizations, & I mostly giving talks about how scientists can better communicate science. I gave a few talks on my Phd thesis as well. Also, some organizations would ask me to do multiple speeches on both of these things.  11. What was the route that you took & how many states did you travel through? I started in Connecticut, & drove down to Key West. I spoke at Mote Marine Laboratory along the way, & spoke in every state I traveled through. Then I traveled west to San Diego, gave a talk & San Diego, & gave talks in almost every state along the way. After that, I drove back across through Oklahoma, Virginia, Tennessee, & back to Philadelphia. 12. What were your accommodations like on the tour? I stayed in Roadside Motels, I camped sometimes, & I stayed in the University provided accommodations occasionally. When I was speaking at one of Mote Marine Laboratory, I stayed in the research facility for one night. I stayed all over the place. 13. Do you have a most memorable moment from the “Squid’s Across America Tour”?  When I was going to go on stage to give a talk at Duke, my father called me & told me that my adoption agency had sent me a letter. I thought that it was weird, & that something terrible had happened. So I give the talk & the entire time I am giving the talk I am freaking out. After the talk was done, I ran off the stage into the next building over, & popped into a random conference room. I probably wasn’t allowed to be in that conference room, however I went in anyway. So I called the Adoption agency & asked them what was up, & they said “Oh, your birth mother wants to meet you”. I told them that I wasn’t in Philadelphia at the time, & took down her contact information. She didn’t pick up my call, so I just continued. My next stop was Georgia, & I don’t believe I had been to Georgia before. I was at the agricultural school there, so I was truly in the middle of nowhere.  I was staying with this really sweet lady, & I feel really bad because I was sort of an emotional wreck at the time. I was staying in between 2 cotton fields, & I was so far out of my comfort zone. So I told her “Hey, I have to call someone, & the next time I see you I might be crying, but everything’s fine, it’s just you’ve met me on a very weird day.” So I called my birth mother & we talked for about an hour, & made plans to meet up in Philadelphia in November. So that was pretty wild. 14. What Inspired you to begin the Skype-A-Scientist Project? I had been doing science communication on social media for a couple years at this point, & many scientists were afraid that they had failed to communicate the direness of climate change to the public & politicians. There was a lot of energy going around, & everyone was wondering “What do we do?”. So I was brainstorming ways that we could mobilize scientists to connect with people, & attempt to overcome this problem that I had been trying to figure out how to solve for years.  I thought we should just try it, so I put out 2 forms on social media, one for teachers, & one for scientists. About 500 scientists signed up, & I was curious to see if any teachers would sign up. 800 classrooms signed up in the first month, so I matched them up, & it worked! This was January of 2017 when it started, & I didn’t finish my thesis until August of 2019. By the time those 2 years had passed, I was able to run the thing full-time. 15. What is most fulfilling to you about Skype-A-Scientist? The freedom to pursue unconventional Science Communication Projects. I run the program & it's amazing, we serve between 5,000 & 10,000 classrooms a year. During the height of the Pandemic, we were serving about 11,000 classrooms. Now we serve closer to 5,000 classrooms a year.  I don’t see the impact of those sessions because I’m not in those sessions, & I know the impact is distributed throughout many many people. I want the most scientists possible from the broadest array of fields to be having these conversations. While it’s good & it's impactful, It doesn’t hit my feelings very much.  16. How many staff does Skype-A-Scientist have?  We have 1 full timer, & 1 part timer. 17. Do you have plans to develop more programs or merchandise for Skype A Scientist? Just running the existing program that we have is a pretty heavy lift, so we’re not looking to grow because we don’t have the staff to do so. But, I love playing with new things all the time.  Right now we are celebrating Squidtember, which is the month of September when we celebrate Squid. We’re working with OceanX which is an advocacy group, & we made these Squid Zines. So you can learn about Squid in these little zines, I designed them! We’ve never done a zine before, so we’re doing one!  I’m waiting on a second grant to make this project fully work, however, I am looking to hire 5 local artists to do a biodiversity zine for Philadelphia. It is going to be a simple straightforward guide to biodiversity in Philadelphia.  18. What was the most difficult part of starting Skype-A-Scientist? Learning IRS bureaucratic paperwork is not one of my strong suits. It is not something I am good at, & it makes me paralyzed with fear that I am going to screw something up. I messed up some paperwork however we got that fixed. That is the worst, it is hard & scary.  Every year keeping our organization funded is also quite difficult. I’ve written 10 grants this year & gotten rejected for 2, the rest of them I don’t know the results of yet. 19. What are the murals like?  We’ve done a couple science education community murals. What I love about them, is that we bring people out to these science education projects that do not show up to science events. They don’t think of it as a science event, I believe they think of it as an art event or simply something fun, & it's great. I survey these people when they show up, & when I ask them about how much they know about the topic.  We had one community paint day that was beautiful chaos, where we had 130 people come out to paint this mural. When I look over the survey, a lot of these people can’t even name a single animal in the Delaware River, & that's great. That means that we are hitting people who aren’t already reading science books or following science on social media.  I like getting deeply involved with communities out here in Philadelphia, & it is so fulfilling & I love it a lot.  20. How many murals do you currently have? We have 2 huge ones in Philadelphia, & one electrical box-sized one in Boston. However, we have street art all over the place, but street art isn’t a mural. From Los Angeles to Australia, to New York. Everywhere I go that has a street art culture already there, I put stickers up.  I’d love to do more murals, I’ve submitted 3 grants over the summer to do murals in 2025. I’m hoping that I’ve written enough in 2024 to support murals in 2025. My philosophy with murals is that you need to put in a lot of effort before the paint hits the wall, on community engagement. The murals take a lot of time. If there were a group of scientists far away from me who had someone willing to conduct community meetings, gather community input, & vote on what the community wants in the mural, then that would be ideal. We begin the process about 2 months before we start painting because we want to give the artist time to design a quality piece after community input. The painting itself takes about 3 weeks. Strategic Partnerships Reel Guppy Outdoors  SharkedSkooler Marine Enthusiasts Podcasts StemScribe Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

The Diamondback Squid Of Nanumanga, Tuvalu This months article series, will discuss the palmate octopus of Nanumanga, Tuvalu. Nanumanga is an island in the South Pacific, it belongs to the country of Tuvalu. It has a very small population as it is only 1 square mile in total. There are approximately 491 people who inhabit the island. It is approximately 3556.56 Nautical / Marine Miles (4092.816154 miles or 6586.74912 kilometers) from mainland Asia, specifically the country of China. It is also approximately 1706.54 Nautical / Marine Miles (1963.851159 miles or 3160.51208 kilometers) from Australia. The island is known for their beautiful coral reefs & scuba diving experiences. The country of Tuvalu is most well known for being built on massive coral atolls, with a large percentage of their ocean having some presence of living coral. This attracts many other marine species which in turn diversifies the area. The area also has a quite favourable climate, with it being quite warm for the entire year. The oceanic temperature changes very slightly through the seasons, so this may attract species that require lots of prey as prey will be available year round. The species that are attracted, form new ecological structures & make others more feasible, an example where this is seen is seagrass meadows.  One of the species that is attracted to the area, is known as the Thysanoteuthis rhombus (diamondback squid). It is a species of squid which inhabits the surrounding waters of the island. The diamondback squid is a small squid usually pinkish in colour, that is found throughout the South Pacific as well as the Atlantic. They are not venomous & usually do not attack humans. This species is found in semi-high density around the island. The reason for this most likely is the favourable climate & the high amount of prey. It is easily identifiable as it has large fins that run the approximate length of the mantle. The fins are most likely the reason for the name “diamondback” as their fins appear similar to a cut diamond. It is quite easy to identify them by sex as well, as the females may be up to a full meter in length while the males may be as small as a few centimeters. In this article we will discuss the life of the diamondback squid, the mating procedures, tactics, practices, & cycles of the diamondback squid, the distribution of the diamondback squid , & finally the scientific detailings of the diamondback squid.  The Life Of The Diamondback Squid The Diamondback squid was first described in the year 1857 by Frans Herman Troschel, a german zoologist. The first work that they were described in is unclear. It is also unclear how exactly this species was discovered. The diamondback squid differs wildly in size between males & females. The species may grow to be up to 100 centimeters (1 meter or 3.28084 feet). However it rare that they will grow to be this size, it is more likely that they will be 85 centimeters long & lower (0.85 meters or 2.78871 feet). They may have a maximum weight of 30 kilograms, however they average at 20 kilograms (66.1387 pounds or 44.0925 pounds) between both sexes. The life span of the diamondback squid is approximately 1 year to 1 year & 3 months. As a species, they do not seem to exhibit any more intelligence then an average squid species. Squids as a whole are incredibly intelligent. They demonstrate problem solving skills. They also occasionally use their tentacles to pull themselves into small crevices. Much like octopi in a way. They also seem to be able to recognize humans & to maintain a sense of identity. It is incredibly hard to tell when this species started existing. However, we do know that the oldest squid species that we know of, began existing at least 328 million years ago. This narrows it down considerably. They tend to not interact with humans & keep their distance. However they are known for occasionally jumping into boats. They also do not seem to show aggression towards humans. They have been captured before & are often sold in Japan & places around Japan. They are migratory creatures & do not seem to stay in one place. However it is a slow migration. They do not seem to be territorial or have a sense of territory. It is unknown how solitary they are & how much they tolerate each other, but they do tolerate each other. This is seen in that they will pair with each other. Pairs of monogamous diamondback will gather in groups of up to 20. They have many natural predators, most commonly sharks, whales, Dolphin fish, lancet fish, certain species of tuna & swordfish. They are somehow, able to make powerful contractions using their mantle in order to escape predators & other threats. These species will all consume diamondback squid if given the chance. A strange behaviour of the diamondback squid, is that they will slowly go deeper into the ocean over the course of their lives. Juveniles will usually stay at subsurface levels for this sector of their lives. Then once they mature, they will begin venturing deeper & deeper. This makes it so that the majority of adults are found in the Mesopelagic zone, & most juveniles are found on the surface. It had been proven, that most adults beyond 400 meters deep (1312.34 feet deep) mostly consume nonactive fish. Most squid on the top consume crustaceans, other cephalopods, & fish of various species. The squid on the top will usually feed in the day time, while the squid in the mesopelagic zone are nocturnal feeders. It is unknown how much it consumes per day. Since it swims rather slowly & usually does not seem like it has that high of a metabolism. It is also unclear as to how exactly it hunts. They are not very active swimmers, they are able to propel themselves slowly using their large fins. It is not exactly clear at what speeds the diamondback squid is capable of swimming at. It unknown as to how exactly they are able to sleep. The diamondback squid is a nice light redish-pink. They have incredibly long mantles with triangular fins & at the bottom they have a set of stubby  tentacles.  The Mating Cycles, Practices Tactics, & Procedures Of The Diamondback Squid  The Diamondback squid mate via sexual reproduction. They are the only known cephalopod species that are monogamous. The females will mature at a mantle length of 500 to 650 millimeters (50 to 65 centimeters or 19.685 to 25.5906 inches). The males will mature at 400 millimeters to 550 millimeters (40 to 55 centimeters or 15.748 to 21.6535 inches). However, they will mate prematurely & will usually do so at a mantle length of less then 100 millimeters (10 centimeters or 3.93701 inches). They are not hermaphroditic & cannot change sexes. Mating occurs in a head to head position, which in the male will use his hectocotylus to attach to the females buccal membrane to transfer his spermatophores. After this the female will produce secretions of an egg mass from her nidamental glands. The eggs will enter the water & will begin to swell. This swollen egg mass will then be molded into a cylinder by the female, after which the females oviductal glands will begin to form two mucous threads, both of which will be containing a double row of eggs. She will then fuse them into a single cord.  The fused cord then exits through into the water through a funnel where the eggs are met & fertilized with the spermatozoa from  the males seminal receptacles that were attached to the female's buccal membrane. The fertilized egg cord is then wound by the female onto the cylinder. A female can produce 8 to 12 masses if properly utilizing its vitelline oocytes. After this, it seems as if the female will simply swim off, leaving the babies to fend for themselves. It is unknown exactly how many fertilized eggs are produced in the end. It is also unclear how long it takes for the eggs to hatch. It is also unclear exactly how many times the female & male will engage in this action throughout their relationship. It seems, that there will be a 2-3 month block in their relationship where they will engage in this action, then will not engage for the rest of their lives.  The Distribution Of The Diamondback Squid  The diamondback squid is found throughout the majority of most tropical & subtropical regions of the world. They are found in approximately 101 countries throughout the world. They are found throughout the Caribbean, the North Pacific, the South Pacific & all through Africa. They prefer warmer temperatures & seem to die in temperatures below 15° celsius (59° Fahrenheit). This is also why they usually prefer to stay in the subsurface area. These tropical areas that they are found in, are usually quite shallow. For example, they are found quite commonly throughout the sea of japan, in the center of the sea of Japan, there is a very shallow area known as Yamato bank. This is most likely very appealing as Yamato bank is both warm & shallow.  They are found around 6 of the 7 continents on earth as of publication. They do not seem to be decreasing in population, so they can be expected to make their presence well known. It is also hard to say if there has been a migrational trend or not, as we are not entirely sure how long they existed for in these areas.  The Scientific Detailings Of The Diamondback Squid  Without a doubt, one of the most interesting things about squids is their ability to produce ink. They produce this ink a means of defence. By producing this ink, their attacker will be blinded as it obscures their vision, allowing the squid to make a swift escape. This is not a common technique of defence seen in oceanic species. The diamondback squid in particular has a reddish brown colour of ink. Chemically speaking, the squids ink contains melanin, enzymes polysaccharides, catecholamines, metals cadmium, lead, & copper, as well as amino acids, such as glutamate, taurine, alanine, leucine, & aspartic acid. The ink is stored in an ink sack in the center of the mantle next to the liver. The squid releases this ink through the siphon, which is located just below the mantle on the opposite side of the mantle that the eyes are upon. Another interesting thing about squids, is that they are completely compressible aside from their beak. Whatever crevice that the beak can fit through, the squid can fit through. It is proven that a squid can fit through an area that is a quarter of the size of the squid. Their beak is their only real hard area on their body, with the rest being compressible. The beak is located underneath the mantle & at the base of the tentacles. This species of squid is not venomous in any capacity. The squid has 3 hearts, 2 branchial & one systemic. The systemic heart rests in the middle of the mantle. The gill heart rests slightly further up. The gill heart takes in oxygen in the blood, & then sends the oxygenized blood to the systemic heart. The systemic heart will then send the blood about the squids body. Their brain rests in their lower mantle. However, this brain is not how we think of it traditionally. It is rather small & does not control much. As stated in our previous article on the European squid, squids do have small brains, they do not have a central nervous system. They do not have a centralized brain that controls the body as humans do. Their neurons are in various clusters around their body. These clusters are known as ganglia. These clusters will control various parts of the body. They also have very are very strange when it comes neuroscience. This is best said by Jade Zee, A professor at northeastern university. She says & we quote “We humans have white matter, which causes electrical signals to travel much, much faster in our neurons. Invertebrates don’t have that. So the invertebrate solution, if you want electrical signals travel faster, is to have a wider diameter axon of a neuron. The very first action potentials were recorded in what’s called the squid giant axon. It’s about a millimeter in diameter, which I know still sounds small, but that’s actually really, really big compared to other nerves.”. Their blood is also blue instead of red. The reason for this is due to a copper rich protein known as Hemocyanin existing in their blood. The existence of this protein in their blood causes their blood to be blue. This is very similar to the iron in Hemoglobin in human blood. This blue blood exists in all cephalopods. This blue blood can be used a pigment if used properly. Their phylum is known as Mollusca. Mollusca is the 2nd largest phylum, just behind Arthopoda. Mollusca is however the largest marine phylum as it comprises approximately 23% of all documented marine species. The three most commonly found features defining modern species categorized under molluscs are the following: a mantle with a significant cavity used for breathing & excretion, the presence of a radula, and the structure of the nervous system. Their class is Cephalopoda. This class includes almost all species of cuttlefish, octopi, squid, & nautilus. Their order is Octopoda. This order contains the same types of species as Cephalopoda. A universal characteristic of this order is that all species classified under this are invertebrates, as well as the presence of arms or tentacles. Their order is Oegopsida, an order of squid, similar to Myopsida. A few universal characteristics of squid under this order is that they have a mantle without tentacle pockets, their eyes lack a corneal covering, & they have buccal supports without suckers. Their family is Thysanoteuthidae, a family comprised of just 1 species, however this is may change. Their genus is Thysanoteuthis, which is a genus of squid. Once again, this genus only contains Thysanoteuthis rhombus. Their binomial name is Thysanoteuthis rhombus.  Directories / Credits  https://animalia.bio/thysanoteuthis-rhombus https://www.dawn.com/news/1286288 Strategic Partnerships  Reel Guppy Outdoors  Our Loyal Patrons Ms. Ochoa

Hello loyal readers, the administration of The Persaud Catalog has decided to merge The Persaud Catalog: Journal Of Marine Biology, with The Persaud Catalog. Additionally, we decided to change its name. From now on, any seagrass survey articles will simply be titled with the phrase "Seagrass Survey" at the beginning of them, & there will only be a single newsletter. We appreciate everyone's support, & attention. Strategic Partnerships Reel Guppy Outdoors SharkedSkooler Marine Enthusiasts Podcast StemScribe Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

This article is a part of our second newsletter, The Persaud Catalogue Journal of Marine Biology. In this second newsletter, we will publish information concerning the various marine flora & fauna of certain places. This newsletter will publish sporadically, & not on a timed basis like The Persaud Catalog. This second newsletter is in affiliation with The Persaud Catalog, however it is a separate entity.  In today’s article, we will catalog the various species of seagrass found in & around Las Tunas Beach, California, United States.    On September 1st, 2024, we sent 2 field agents to Las Tunas Beach to survey the marine flora of the beach. The results they came back with are documented in this article.    In this article, we shall delve into the density of the certain marine plants found around Las Tunas Beach, the areas in which these species are found, & a detailed description of each species.    Please note, this was done with the correct permits or permissions & with previous research, do not attempt to imitate this survey without being aware of the permits or permissions that may be necessary to do so. With that being said, let us delve into the intriguing marine plants of Las Tunas Beach, California.   The Survey Results Please note that all of our data was collected from 3:00 PM to 3:37 PM on September 1st, 2024. The tidal positioning at the time of collection may influence the results of this survey.    Specimen & Seagrass Species No. 1: Zostera Marina (Common Eelgrass) Zostera Marina was the most common species of marine plant found along Las Tunas Beach. It was found in single blades littered around the sandy areas of the beach. This species is extremely easy to identify as it is long, thin, & green. Our specimen was found at the coordinates of Latitude 33°2’22” North, & Longitude 118°35’52” West. Our specimen for this species was approximately 9 inches (22.86 centimeters) long. Unfortunately, it was not attached to any sort of root, so the true length of the main plant it came from is unknown. It seemed to have snapped off from its main stem, though we cannot confirm this. Usually, the stem & root of the seagrass is white. This species is a true seagrass, meaning it grows rooted on the seafloor, like a grass. It usually grows in water of 10 meters (32.8084 feet) or less.    Interestingly, it is the only species in the Zostera Genus along California’s coast. Eelgrass usually grows in meadows, & it often consumed by waterfowl. It is extremely important to the coastal ecosystem as they provide a natural spawning area for many different marine species. This species is distributed from Alaska, to Baja California.    Zostera Marina has existed for at least 8 million years, & has practically always been fundamental to California’s estuarine ecosystems.    Specimen & Seagrass Species No. 2:  Corallinales (Red Coralline Algae) Our next specimen that was found, was Red Coralline Algae. Red Coralline Algae was found the most infrequently as it grows off the coast, & due to the way that the beach is structured, is difficult to wash up. Our specimen was approximately 4 inches (10.16 centimeters) long, & 1 inch (2.54 centimeters) wide. Our specimen seems to have been a part of the thallus of a large Red Coralline Algae colony.    Due to there being at least 2 different taxonomic families of Coraline Algae that grow in the nearby area, it is not clear which species this specimen belongs to. Red Coralline Algae is extremely important to the marine ecosystems of California, as they provide food & shelter to many marine animals. When growing in the wild, they grow upright in large patches, or grow against rocks. They appear purple or pink, have look similar to rough coral. Typically, individuals in this species will reach 8 inches in length at maturity.    Specimen & Seagrass Species No. 3: Unidentified Bright Green Species Of Algae We found a bright green species of algae along the beach, washed up on the sand. Unfortunately after much research, we were unable to identify the specimen. It is very small, at approximately 1 inch (2.54 centimeters) long, & seems to be a large clump of algae that broke off of a larger colony.    Specimen & Seagrass Species No. 4: Unidentified Species Of Kelp Our field agents found a large piece of kelp washed up along the beach, however were unable to identify its species. The kelp broke apart, with the smallest part measuring 7 inches (17.78 centimeters). It has a very long, flat, stalk, with many leafs coming off of its sides.   Strategic Partnerships Reel Guppy Outdoors SharkedSkooler Marine Enthusiasts Podcast StemScribe   Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

In today’s article, we shall discuss the history of Tokyo Bay, a lovely bay in the south of Japan. Tokyo Bay is a large bay that is located next to the cities of Tokyo & Yokohama at the northern end, & Yokosuka at the southern end. It is extremely industrialized, with many harbors, & commercial districts along its shore. The bay rests in the northern Pacific Ocean, on the island of Honshu. It connects to the Pacific Ocean through the Uraga channel. Though the bay has an average depth of 130 feet, it can become over 1,500 feet deep in certain areas. The area as well as the bay itself is well known in film, as it is often the place where the fictional kaiju “Godzilla”, emerges from. Godzilla is a fictional Japanese monster, created by Toho Studios in the 1950’s.   Historically, the bay has been used for trade, & as a strategic location during war. Islands in the bay both artificial & natural have been used to store artillery during battle, & have been used as fortresses. In addition to being useful for war, it was the historic center of fishing. Until industrialization at the beginning of the 20th century, Tokyo Bay was the main area for the fishing industry in Japan. It was a major source of shellfish, fish, & many other marine creatures. Unfortunately, this fishing activity began declining at the beginning of the 1900s, before ultimately ceasing after World War 2.  The bay is extremely biodiverse, with animals of many varieties living both in its waters & around its shore. One of the strangest of these animals is the Goblin Shark (Mitsukurina Owstoni). To those who wish to learn more, we published an article about this creature on August 20th, 2024. To find this article, please type “Mitsukurina Owstoni”, in the search function of our website. The bay spans 2 prefectures, from the Kanagawa Prefecture to the Chiba Prefecture. It has an area of approximately 580 square miles (1502.19 kilometers). At the time of publishing, Tokyo Bay is the most industrialized area in all of Japan, as well as the most populated.  In this article, we shall be discussing the Documented History of Tokyo Bay, the Indigenous Aboriginals of Tokyo Bay, the most destructive man-caused & natural disasters, the economy of Tokyo Bay, & the rivers of Tokyo Bay. With that being said, let us delve into this beautiful serene bay.  The Documented History Of Tokyo Bay  History from 1600 to the 1800’s Tokugawa Ieyasu made Tokyo (Then called Edo) the de facto capital of Japan in the early 1600’s, and by 1700 Edo grew to become one of the largest cities in the world.  The people of Edo, Yokohama, and other cities on Tokyo Bay’s shore made use of Tokyo Bay for fishing and trade.  Edo’s people also practiced advanced (for the time) wastewater recycling and management, reducing the amount of pollution entering Tokyo  Bay. History From The 1800’s  In the years 1852 & 1853, Tokyo Bay hosted the Perry Expedition, an expedition led by the United States Naval Corps to negotiate with the Tokugawa Shogunate. At this time the Tokugawa Shogunate, the effective reigning government of Japan, was very hostile towards foreigners. When the expedition was first launched, there was a 220-year-old isolation policy in place, which prohibited foreign trade almost completely. The Perry Expedition was considered to be a key way to open trade with Japan, & encourage the government to allow more foreign trade. While the main goal of the expedition was to open Japan to trade with America, ships also aimed to survey the coast of Japan, & further explore Japanese Waters. The expedition first began in 1852, with an American Ship sailing from Virginia to Japan. The ship reached the Uraga Channel on July 8th, 1852, where its captain attempted to sail into Tokyo Bay. This was met with great hostility from the Japanese, who immediately surrounded the American ship. Through a 6-day negotiation process, the American ship was allowed to land near modern-day Yokosuka. A letter sent by current President Fillmore arrived during this time. The ship left after 3 days bound for China, promising to return soon to get their reply to the president.  Unfortunately, soon after the Americans left, the Shogun fell ill & promptly passed away. He was quickly succeeded by his young son, however this left the government in a harebrained state.  The Americans would return on February 13th of the following year with a fleet of eight new ships, with a ninth soon to follow. They sailed into the small village of Yokohama, where a hall had been erected to aid in negotiations. Negotiations lasted approximately 3 weeks, with many state gifts being exchanged between the American & Japanese governments. These gifts included a small steam locomotive, one hundred gallons of whiskey, & books about the United States by the Americans, & porcelain goblets, a small collection of sea shells, silk garments, & bronze ornaments by the Japanese.  In the end, an agreement was reached, & Japan became open to trade with Americans.  Later trade agreements were reached with many other nations. As mentioned before, Tokyo Bay only has 1 natural island artificial island, however, it also has many small artificial islands. One of these islands, Odaiba, was constructed around the time of the Perry Expedition in order to fend off foreign ships. Its name translates to fort, or forts with cannon. At the time of its construction, Odaiba Island had several mounted guns & cannons to defend against foreign attacks. After the period of Japanese isolation, Odaiba island was largely undeveloped, until the 1990’s. Historical Events From the 1900’s The cities along Tokyo Bay expanded enormously during the 20th century.  Yokohama’s population surpassed 3 million, and Tokyo became the world’s most populous city.  Ocean trade passing through Tokyo Bay increased exponentially. In 1989, work began on the Tokyo Bay Aqualine. The Tokyo Bay Aqualine is a combination of 2 underwater tunnels, & a large bridge. These underwater tunnels run underneath Tokyo Bay. The bridge & underwater tunnels were opened in 1997, & run from Kawasaki to Kisarazu, across Tokyo Bay. In total, the line cost 1.4 billion Japanese Yen, & took 23 years of planning, as well as 9 years of construction.  In the late 1990’s & the early 2000’s, the island of Odaiba was repurposed as a commercial, residential, & recreational area. Several entertainment companies decided to move their headquarters to the area, most namely Fuji Television. Soon after, Tokyo Big Sight, a large Exhibition hall, was built on the island.  The D1 Grand Prix Motorcar Drifting Series, one of the largest car drifting events in the world, was hosted in Odaiba in the years 2004, & 2018.  Historical Events From The 2000’s Odaiba hosted multiple events for the 2020 Tokyo Summer Olympics. The area hosted several Beach Volleyball Events, Parts of Triathlon Events, & Marathon Swimming.  The Indigenous Aboriginal Japanese Of Tokyo Bay  The “Jomon”, the first, aboriginal, native Japanese Peoples have inhabited Tokyo Bay for thousands of years.  It is not clear how Tokyo Bay impacted them, or if there were any variations between the aboriginal Japanese of Tokyo Bay, & the aboriginal Japanese inhabiting the rest of South Japan.  The Jomon do seem to have been skilled fishermen and made use of seashells in crafts.  The Jomon near Tokyo Bay seem to have eaten shellfish, likely collected from Tokyo Bay.  They also “exploited” the whales and dolphins living in Tokyo Bay.   The Most Destructive Man-Caused & Natural Disasters To Affect Tokyo Bay  Unfortunately, there are not many major disasters to have originated from Tokyo Bay. However, typhoons have sometimes arrived in Tokyo Bay from further south.   Earthquakes have also sometimes caused tsunamis in Tokyo Bay.    The Economy Of Tokyo Bay  Tokyo Bay houses some of the most important ports in Japan. The bay houses the Port of Chiba, the Port of Yokohama, the Port of Tokyo, & the Port of Kisarazu, which at the time of publishing, are some of the busiest ports in all of Japan, & Asia.    The Rivers Of Tokyo Bay   The Yōrō River  The Yōrō River is a river that flows into Tokyo Bay from the Chiba Prefecture. In total, the river is approximately 45.6 miles long (73.38609 kilometers). The river is well known for its hiking trails, scenic landscapes, waterfalls, & onsen hot spring. The river is also important for agriculture, as the middle & lower parts of the river have been integrated into rice fields.   The Obitsu River  The Obitsu River is a river that flows into Tokyo Bay. In total, the river is approximately 55 miles (88.5139 kilometers) in length. The mouth of the river is home to the only remaining tidal flat in Tokyo Bay, which is extremely important to the ecology of the Bay. In 2012, it was identified as being home to an endangered species of Crab.    The Arakawa River  The Arakawa is one of the longest rivers that flows into Tokyo Bay, with an astounding length of 107 miles (172.2 kilometers). The bay flows south from Mount Kobushi into Tokyo Bay. This river is one of the major sources of Tap Water for the people of Tokyo.    The Edo River The Edo River is a river that flows into Tokyo Bay. It flows between the Tokyo, Chiba, & Saitama Prefectures. It is approximately 37 miles in length.    Directories / Credits   Citation No. 1: “Brief Summary of the Perry Expedition to Japan, 1853”, Written by Unknown, & Published on August 23rd, 2017. Retrieval Date: June 30th, 2024. https://www.history.navy.mil/research/library/online-reading-room/title-list-alphabetically/b/brief-summary-perry-expedition-japan-1853.html   Citation No. 2: “The United States & the Opening to Japan, 1853”, Written By Unknown & Published at an Unknown Date. Published by the United States Department Of State. Retrieval Date: June 30th, 2024. https://history.state.gov/milestones/1830-1860/opening-to-japan   Citation No. 3: “Tokyo Bayside Story: History of Odaiba”, Written by Unknown, & Published on June 4th, 2020. Published by WAttention. Retrieval Date: June 30th, 2024. https://wattention.com/tokyo-bayside-story-odaiba/   Citation No. 4: “The Tokyo Bay Area’s Development: Lessons to be Learned” Written by Wenda Ma, & Published on October 22nd, 2018. Published by the Hong Kong Trade Development Council. Retrieval Date: June 30th, 2024. https://research.hktdc.com/en/article/NDAwMDc1MjU2   Citation No. 5: “Yoro Valley”, Written by Unknown & Published at an Unknown Date. Published by the Japan National Tourism Agency. Retrieval Date: June 30th, 2024.  https://www.japan.travel/en/spot/1535/   Citation No. 6: “Obitsu River Mouth & Tidal Flat”, Written by Unknown & Published at an Unknown Date. Published by Guidoor. Retrieval Date: June 30th, 2024. https://www.guidoor.jp/en/places/5378   Citation No. 7: “Exploitation of whale and dolphin resources in the Jomon period in Tokyo Bay”, Written by Tanabe, Yumiko.  Published by Unknown.  Retrieval Date: Aug. 30, 2024. https://www.researchgate.net/publication/377817438_Exploitation_of_whale_and_dolphin_resources_in_the_Jomon_period_in_Tokyo_Baydongjingwanyanandeyuniokeruyingwenshidainojingleiliyong   Citation No. 8: ”Collections of Morse from the Shell Mounds of Omori”, Written by Immamura, Keiji.  Published by UMDB Tokyo.  Retrieval Date: Aug. 30, 2024.  http://umdb.um.u-tokyo.ac.jp/DKankoub/Publish_db/2000dm2k/english/02/02-03.html Citation No. 9: Japan Meteorological Society, Retrieval Date Aug. 30, 2024, https://www.jma.go.jp/jma/indexe.html Strategic Partnerships Reel Guppy Outdoors SharkedSkooler   Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

Marine Biological Hall Of Distinction: Sir John Murray This article is a part of our collection known as the Marine Hall Of Distinction. It is a different series from our main monthly series & has no connection to the main monthly series. In this special collection, we will discuss marine biologists who we feel have served marine biology & oceanography the most. We do this in order to commemorate these marine biologists & to show gratitude for everything they have contributed to our oceans. This collection has no relation to the main monthly series. This series is published on the 25th of every month, shortly after our article on the oceanic environment of a certain region on the 20th.  Today’s marine biologist is the highly respected & esteemed, John Murray. John Murray was a Scottish-Canadian Marine Biologist, Oceanographer, & Limnologist who is widely considered to be the Father of Modern Oceanography.  Sir John Murray is widely acclaimed his involvement in the Challenger Expedition of 1872, in which he & several naval officers, scientists, & photographers surveyed approximately 79,280 miles of ocean, laying the foundation for modern oceanography & discovering the Challenger Deep along the way. The expedition lasted 4 years, & in the final reports, it was revealed that 4,000 previously unknown species were cataloged.  In addition to his work on the Challenger Expedition, he is well known for his work on surveying freshwater Lochs in Scotland. Over the course of a few years & with the assistance of 50 people, he & his crew took 60,000 depth soundings to make complete maps of various different major lochs.  In this article, we shall be discussing John Murray’s Formative Years & Education, John Murray’s Career & Later Life, & finally John Murray’s Achievements, Accomplishments, Awards, & Honorables. With that being said, let us delve into this esteemed & respected Scottish-Canadian Marine Biologist. His Formative Years & Education Sir John Murray was born on March 3rd, 1841, in what is modernly Cobourg, Ontario, Canada. He was born to Robert Murray, & Elizabeth Macfarlane. He spent his childhood in Canada, before moving to Stirlingshire, Scotland, to live with his Grandfather to study Medicine. He studied medicine at the University of Edinburgh, where he met Robert L. Stevenson, the author of “The Strange Case of Dr. Jekyll & Mr. Hyde”. During his time as a medical student, he attempted to conduct multiple medical studies, which were seemingly unsuccessful. As a naturally exploratory & inquisitive man, he had issues dealing with the how scheduled & regimented everything was. For this reason, he never graduated from medical school, however that would not hold him back in anyway. Upon leaving university, he earned a position as a ships surgeon.  His Career & Later Life Annoyed with his studies at University, Murray became the Ships Surgeon for vessel Jan Mayen for a short time in 1868. During the 7 month voyage he worked on the Jan Mayen, he collected various marine animals, monitored environmental conditions, & tracked things such as tides & currents. Upon returning home he returned to the University of Edinburgh, where he finished a degree in geology. Earning necessary skills as a naturalist from his position aboard the Jan Mayen, he was invited to be the Third Naturalist for the Challenger expedition. During the planning stages of the voyage he worked closely with Charles Wyville Thompson. The expedition began in 1872, & ended after four years in 1876. Upon returning to Scotland, he was put in charge of editing & processing all the data collected from the expedition. It took him approximately 15 years of continuous editing, & in the end he was able to publish “The Scientific Results of The Voyage of HMS Challenger” in 50 different volumes. Approximately 4,717 never-before-seen species were discovered on this voyage. In honour of the expedition, he named his home the “Challenger Lodge”, which is modernly a Palliative Care Center operated by Hospice.  In the year 1884, John Murray established the Marine Laboratory in Granton Edinburgh, which was one of the first marine biological laboratories on the British Isles. Many collaborative projects would take place here, often with international scientists from America or the rest of Europe. During this time, he would also explore the sea lochs of Scotland in a specially constructed boat, named the Medusa.  In 1896, he was elected to the Fishery Board for Scotland, where he would serve until 1898.  Murray married his wife Isabel Henderson on January 24th, 1889, & had a son with her on the 12th June, 1894. He named his son John Challenger Murray, after the Challenger Expedition.  A project to survey all Freshwater Lochs in Scotland had been ongoing since 1897, however it was dramatically accelerated in 1901 when the man he was working on the project with, Frederick Pullar, was tragically killed in an Ice Skating Accident. Pullar was ice skating on a large lake with many people, & when the ice cracked, chaos erupted. He spotted a young woman who was drowning, & did his best to save her, however unfortunately both he & the young woman drowned. Greatly distraught by this incident, he prepared to abandon the project all together. However, Pullar’s father, Laurance Pullar, offered to pay Murray £10,000 pounds to finish the surveys. Murray accepted, & with the help of 50 people over the course of 4 years, surveyed almost every freshwater loch in Scotland. He & his team conducted more then 60,000 soundings of the lochs, & published their final results in the report “Bathymetrical surveys of the freshwater lochs of Scotland”.  In the year 1910, he convinced  the Norwegian Government to allow him to borrow the research vessel Micheal Sars for another oceanographic expedition, on the condition that he paid for all the expenses to furnish the ship. He would use the Micheal Sars to explore the deep ocean & the ocean floor in the North Atlantic with fellow scientist Johan Hjort, & would publish the findings from these missions in the book “The Depths Of The Ocean”. In this book, he revealed that the ocean floor is not void of life as thought previously, & is instead teeming with all sorts of marine creatures. Additionally, he revealed the existence of several new deep sea octopi, one of which he named after himself. This deep sea octopus is modernly named Cirrothauma murrayi, commonly known as the Blind Cirrate Octopus.  John Murray unfortunately passed away in a vehicle crash when his car overturned in Edinburgh, near his home. His death date is March 16th, 1914. He was buried in Dean Cemetery, Edinburgh, with his headstone reading “Sir John Murray, KCB, Oceanographer. Born 3rd, March 1841, Died 16th, March 1914. He is buried alongside his wife, Isabel Henderson.  Sir John Murray dedicated his life to the study of Marine Biology, Oceanography, & Limnology. His work is still very relevant to this day, & his contributions will not be forgotten or disregarded. His Achievements, Accomplishments, Awards, & Honorables Of Sir John Murray Sir John Murray has at the time of publishing, 26 Taxa named in his honour. In his life time, he was the President both the Scottish Natural History Society, & the Royal Scottish Geographical Society. He received at least 13 different medals in his life, for things varying from his work in Oceanography to his work in Geology.  He founded the Alexander Agassiz Medal, in honour of his close friend Alexander Agassiz.  He helped to lead the Challenger Expedition, one of the most influential scientific expeditions in all of modern history.  Directories / Credits Citation No. 1: “Sir John Murray (1841 - 1914)”, Written by Unknown & Published at an Unknown Date. Published by the National Records of Scotland. Retrieval Date: August 5th, 2024.  https://www.nrscotland.gov.uk/research/learning/hall-of-fame/hall-of-fame-a-z/murray-john-oceanographer Citation No. 2: “John Murray, the Sir of the ocean deep & the Dr. Jekyll of Oceanography”, Written by Unknown & Published on March 1st, 2021. Published by the European Marine Biological Resource Center. Retrieval Date: August 5th, 2024.  https://www.embrc.eu/newsroom/news/john-murray-sir-ocean-deep-and-dr-jekyll-oceanography Citation No. 3: “Scientist Of The Day: John Murray”, Written by Doctor William B. Ashworth Junior, & Published on March 3rd, 2015. Published by the Linda Hall Library. Retrieval Date: August 5th, 2024.  https://www.lindahall.org/about/news/scientist-of-the-day/john-murray/ Citation No. 4: “Bathymetrical Survey of Freshwater Lochs of Scotland, 1897 - 1909” Written by Unknown, & Published at an Unknown Date. Published by the National Library of Scotland. Retrieval Date: August 5th, 2024.  https://maps.nls.uk/bathymetric/biographies.html Strategic Partnerships  Reel Guppy Outdoors SharkedSkooler The Marine Enthusiasts Podcast Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

In today’s article, we shall be discussing the stunning body of water known as Tokyo Bay. Tokyo Bay is a large bay that is located next to the cities of Tokyo & Yokohama at the northern end, & Yokosuka at the southern end. It is extremely industrialized, with many harbours, & commercial districts along its shore. The bay rests in the northern Pacific Ocean, on the island of Honshu. Though the bay has an average depth of 130 feet, it can become over 1,500 feet deep in certain areas. The area as well as the bay itself is well known in film, as it is often the place were the fictional kaiju “Godzilla”, emerges from. Godzilla is a fictional Japanese Monster, created by Toho Studios in the 1950’s.    Historically, the bay has been used for trade, & as a strategic location during war. Islands in the bay both artificial & natural have been used to store artillery during battle, & have been used as fortresses.    The bay is extremely biodiverse, with animals of many varieties living both in its waters & around its shore. One of the strangest of these animals, is the Goblin Shark (Mitsukurina Owstoni). To those who wish to learn more, we published an article about this creature on August 20th, 2024. To find this article, please type “Mitsukurina owstoni”, in the search function of our website.    In addition to their coastal & deep sea environments, Tokyo Bay has beautiful seaweed forests. A seaweed forest is a dense aggregation of seaweed, that provides a unique environment to marine animals. These specific seaweed forests are the ideal habitat for a prized kind of sea snail, known as the abalone. Abalone is prized for both its shell & its meat, & is a major source of income for many Japanese fishermen.    In this article, we will be delving into the salinity, tides, temperatures, marine geography, & depth Of Tokyo Bay, The Marine Environments Of Tokyo Bay, The Marine Flora & Fauna Of Tokyo Bay, & How Ocean Acidification as well as Rising Oceanic Temperatures are affecting Tokyo Bay. With that being said, let us delve into this beautiful Japanese Bay.   The Salinity, Tides, Temperatures, Marine Geography, & Depth Of Tokyo Bay  The Salinity Of Tokyo Bay can range from 32 to 29.5 parts per thousand. Salinity is measured in 1000 gram increments of water, & for every 1000 grams of water, a certain amount is salt. This measurement is called Parts Per Thousand, or Practical Salinity Units. There are not many known Brine Pools in Tokyo Bay, nor are there many salt deposits.    The tidal charts for Tokyo Bay may be found on a multitude of websites, including: https://www.windfinder.com , https://www.tide-forecast.com , https://www.tideschart.com , & https://www.tidetime.org . Generally, the tides do not go over 3.57 meters high, & don’t go below -1.5 meters.    The oceanic temperatures can be found on similar websites, such as: https://www.tideschart.com , & https://www.seatemperature.org . Using information provided by these charts, the approximate yearly average temperature is 66.883333333333° Fahrenheit (19.3796296296294486° Celsius). Using a wetsuit guide, it is recommended that a person uses a wetsuit of 2 to 3 millimeters in thickness. The bay is safe for swimming, however swimming is prohibited in most areas, except for select beaches. The waters are not very polluted, & are safe for oceanic sports. Although there is quite a lot of tourism in the surrounding areas, there isn’t as much tourism to see the bay itself.    Tokyo Bay lacks sea mounts, & only has 1 natural island, that being Sarushima. The bay can get extremely deep, with some areas reaching over 2,000 feet deep. The average depth is approximately 140 feet deep.    The Marine Environments Of Tokyo Bay    Ecosystem Type No. 1: Seaweed Forests  A Seaweed Forest is a dense aggregation of Seaweed, similar to terrestrial forests. Tokyo Bay has beautiful Seaweed Forests, which provide a space for hundreds of interesting marine species. Unfortunately it is unknown which species of Seaweed that the forest is made of.    These seaweed forests are slowly decreasing in size, & have vanished in certain areas completely. The reason for this decline is rising oceanic temperatures, which simply isn’t compatible with the seaweed. In certain areas, they are being replaced by a new ecosystem, that being coral reefs.    Ecosystem Type No. 2: Intertidal Zones Intertidal zones are located along the coastlines, & are exposed to air at low tide. These zones are where the ocean meets the shoreline, & occasionally have tide-pools located along them. Many marine animals from Sea Stars to Japanese Littleneck Clams, may be found in these areas.    Ecosystem Type No. 3: Fringing Coral Reefs Coral reefs are considered to be one of the main hubs for all marine life, however they are an unwelcome surprise for local Japanese Ecology. Historically coral reefs have not been seen in the bay, however with modern temperatures climbing, the bay is becoming a more suitable environment for tropical corals.  There are various different kinds of coral reefs, the most important of which are atoll, barrier, & fringing. The specific kind of coral reefs in Tokyo bay are Fringing Coral Reefs. Fringing Coral Reefs grow directly against the coastline, & do not have a section of ocean between them as a barrier.  Coral reefs are mass structures of coral polyps, typically located along the ocean floor. The Marine Flora Of Tokyo Bay  Unfortunately, it is not clear what kind of Marine Flora live in Tokyo Bay.  We can only say that Sargassum Fusiforme lives there, because our field agents found it on Tokyo Bay's shores. The Marine Fauna Of Tokyo Bay Although Tokyo Bay is very biodiverse, however we do not have much information on the animals in the bay. There is very little public information available about the fauna in the bay, & there have been no animal surveys conducted. For this reason, we cannot provide any information about the Marine Fauna Of Tokyo Bay.     How Ocean Acidification & Rising Oceanic Temperatures Are Affecting Tokyo Bay Ocean acidification is a phenomenon in which the pH level in the ocean decreases, causing a higher level of acidity. Oceanic Acidification is caused by increased levels of carbon dioxide in the atmosphere.  Atmospheric carbon dioxide levels have increased, largely because of human-caused burning of fossil fuels, & deforestation, for the past 150 years.  When carbon dioxide contacts sea water, it forms carbonic acid.  Carbonic acid gives off positive H+ ions, which causes increased oceanic H+ concentrations & decreased oceanic Ph. When the ocean has decreased Ph, it creates a more acidic environment, which is extremely hostile to many marine species. These conditions that will eat at the shells of bivalves, stress out & eventually bleach coral, & utterly destroy seagrass patches.    Both ocean acidification & Rising oceanic temperatures are negatively affecting Tokyo Bay. One of the major issues caused by Rising Oceanic Temperatures, is the Seaweed Forest Decline. The high oceanic temperatures seen today are not compatible with Seaweed, causing quite a lot of Seaweed to die. When Seaweed Forests die, many animals lose their habitat, forcing them into population decline, & closer to being endangered.    Rising Oceanic Temperatures are also ushering in a new Ecosystem for Tokyo Bay, that being Coral Reefs. Coral Larvae from farther south floated into Tokyo Bay, & laid themselves in the sand. These larvae grew & reproduced, creating the Coral Reefs in Tokyo Bay Today. These coral reefs are bringing with them many tropical fish such as Lionfish, which create competition with the native fish. Overall, these reefs provide a habitat for invasive species, decrease resources for Seaweed Forests & the animals in them, & are not a part of the natural fauna.    Directories / Credits   Citation No. 1: “Tokyo Bay”, Written by Unknown, & Published on July 20th, 1998. Published by Encyclopaedia Britannica. Retrieval Date: July 22nd, 2024.  https://www.britannica.com/place/Tokyo-Bay   Citation No. 2: “Wetsuit thickness & temperature guide”, Written By Mark Evans, & Published On April 24th, 2023, at 3:05 PM. Published By Scuba Divers Magazine. Retrieval Date: July 22nd, 2024. https://www.scubadivermag.com/wetsuit-thickness-and-temperature-guide/#Scuba_diving_wetsuits   Citation No. 3: “Tokyo Bay’s Seaweed Forests - & The Prized Abalone That Live In Them - Disappear” Written by Justin McCurry, & Published On August 18th, 2024.  https://amp.theguardian.com/world/2020/aug/19/tokyo-bays-seaweed-forests-and-prized-abalone-that-live-in-them-disappear   Strategic Partnerships Reel Guppy Outdoors SharkedSkooler   Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

This article is a part of our second newsletter, The Persaud Catalogue Journal of Marine Biology. In this second newsletter, we will publish information concerning the various marine flora & fauna of certain places. This newsletter will publish sporadically, & not on a timed basis like The Persaud Catalog. This second newsletter is in affiliation with The Persaud Catalog, however it is a separate entity.  In today’s article, we will catalog the various species of seagrass found in & around Odaiba Marine Park, Tokyo, Japan. On August 22nd, 2024, we sent 2 field agents to Odaiba Park, to research more about the natural marine flora. In this article, we shall delve into the density of the certain marine plants found along Odaiba Marine Park, the areas in which these species are found, & a detailed description of each species. Please note, this was done with the correct permits or permissions & with previous research, do not attempt to imitate this survey without being aware of the permits or permissions that may be necessary to do so. With that being said, let us delve into the intriguing marine plants of Odaiba Marine Park, Tokyo, Japan.    The Survey Please note, all of these specimens were taken on August 22nd, 2024 in the late afternoon.   Species 1: Sargassum Fusiforme (Hijiki) Our first species is Sargassum Fusiforme, commonly known in Japanese as Hijiki. Hijiki is a species of edible seaweed frequently found along the rocky coastlines of Northeast Asia, particularly in Japan & Korea. It is a staple of the Japanese Diet as it is known for being rich in calcium, & iron. It is said to assist with digestion, as it is high in fiber. Although it has been known to have many health benefits, tests have shown that Hijiki harvested in Japan often has a high level of arsenic, causing many health organizations to advise against its consumption. It is not recommended to harvest this species in the wild for consumption without proper knowledge or precautions. Our specimen for this species is approximately 6 inches long, & 1 inch wide. It was found along Central Odaiba Marine Park.  Hijiki does not grow very frequently near the coastline, & grows further out into the bay. It is a very distinctive kind of seaweed, known for its dark colour, long stipe, & long thin protrusions away from its main stem.   Strategic Partnerships Reel Guppy Outdoors SharkedSkooler Marine Enthusiasts Podcast   Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

Ode To Oceanography: An Antique Nautical Chart Of The Bermuda Islands This article is the fourteenth article in our Ode To Oceanography series. This series will publish on the 15th of every month, until we run out of antique nautical maps to analyze, though that will not be for many decades. Once that happens, we will keep the series running, but we will change the article format. In these articles, will take an antique nautical map & analyze it in its entirety. These maps will not strictly be on open oceanic waters, they may be on rivers or occasionally, bays. We will also discuss the methods that may have been used to make the map, considering the time period, & the country of origin. These maps will come from a variety of sources, though they will mainly come from Maps Of Antiquity, a wonderful New England map shop. These maps will come from varying time periods, & will not be in any particular historical order. Today’s map, is an antique map of the Bermuda Islands. The Bermuda Islands are a small group of islands in the Northern Atlantic Ocean, governed by the United Kingdom. Bermuda is located approximately 1,051 miles off the coast of Florida. The total territory is approximately 20.6 square miles (53.35376 square kilometers). The chart that we are examining is in wonderful condition, with details being clear & precise, & the paper having very few blemishes. There are a few small yellowed spots near the bottom of the map, & a slight curling at the bottom of the chart, however it does not have any affect on the quality of the map itself. The chart is approximately 30 inches (76.2 centimeters) long, & 40.5 inches (102.87 centimeters) wide. In this article we will discuss the map itself, the translation of certain sections of the map, & a surface level analysis on this antique nautical map. With that being said let us delve into the isles of Bermuda.  The Chart Itself Due to the chart being in English, there is no need for any translation. The chart is centered on Bermuda, & its surrounding isles. The chart is uncoloured. The chart has the names of a few settlements on the isle, as well as the safe sea routes between the isles. This chart does label multiple oceanic depths, & oceanic points of interest.    An Analysis Of The Chart This chart was created in 1877 by the United States Hydrographic Office as a part of a survey. As it was made in collaboration with the Navy, it was likely used for Military Research. Additionally, the map has six compasses on it, 4 of which point to magnetic north. This would have been useful in guiding the viewer as to what true north & magnetic north were while sailing. The chart does not have any of the topographical features of Bermuda Outlined on it. It is extremely accurate & detailed, with almost all of the islands around Bermuda being labelled properly. This map was most certainly made via the lithographic process, due to its maker, & the time period that it was manufactured in. In the lithographic method, the artist will draw directly onto a printing surface, such as zinc, or copper, until they are satisfied with the drawing. After this, the surface will be covered with a chemical etch, which will bond it to the surface. With this process, the blank areas will attract moisture to the plate & repel the lithographic ink, while the areas that are drawn on will hold the ink. Water is then wiped onto the unpainted areas to help prevent the ink from deviating. After the map wanted is inked, the paper is laid over it & covered with a tympan, & the tympan is pressed down. Finally, these materials pass through the scraper bar of the litho-press. Afterwards, an exact copy of whatever was supposed to be printed is revealed. Directories / Credits All credit for this map analyzed today goes to Maps Of Antiquity, a wonderful New England map shop. To purchase this map, any other maps, or any other cartographic objects, please visit  mapsofantiquity.com . To be clear, this is not an advertisement for Maps Of Antiquity, as we do not have a partnership with them. Strategic Partnerships Reel Guppy Outdoors   Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

The Goblin Shark Of Tokyo Bay, Japan (Mitsukurina Owstoni) This month's article series is going to be about the beautiful body of water known as Tokyo Bay. Tokyo Bay is a large bay that is located next to the cities of Tokyo & Yokohama at the Northern end, & Yokosuka at the Southern End. It is extremely industrialized, with many harbors, & commercial districts along its shore. The bay rests in the Northern Pacific Ocean, on the island of Honshu. Though the bay has an average depth of 130 feet, it can become over 1,500 feet deep in certain areas. The area as well as the bay itself is well known in film, as it is often the place where the fictional kaiju “Godzilla”, emerges from. Godzilla is a fictional Japanese Monster, created by Toho Studios in the 1950’s.  Historically, the bay has been used for trade, & as a strategic location during war.   Islands in the bay both artificial & natural have been used to store artillery during battle, & have been used as fortresses.  The bay is extremely biodiverse, with animals of many varieties living both in its waters & around its shore. One of the strangest of these animals is the Goblin Shark (Mitsukurina Owstoni).  The Goblin Shark is a strange species of deep-sea shark found in coastal deep-sea areas of the world. They are known to inhabit the upper continental slope of the ocean, near where the coastal shelf begins to drop off. The Goblin Shark is a part of an ancient 125-million-year-old lineage of sharks. They are extremely elusive & rare due to how deep in the ocean they live. They are well known for a few of their strange adaptations, such as distinctive pink skin, sharp nail-like teeth, & the ability to protrude their jaws forward when catching fish. Their snout is distinctive as it is long, triangular, & bladelike. Interestingly, the snout is known to decrease in size with age.  In this article, we will be discussing the discovery & life of the Goblin Shark, the mating tactics, techniques, habits, practices, procedures, & strategies of the Goblin Shark, the distribution of the Goblin Shark, & the scientific detailings of the Goblin Shark. With that being said, let us delve into Mitsukurina Owstoni. The Discovery & Life Of The Goblin Shark  The Goblin Shark was discovered in 1898 by David Starr Jordan, an American ichthyologist & marine biologist. Typically, mature Goblin Sharks are between 8.5 & 15 feet long. Individuals will usually not exceed 460 pounds, unless pregnant. In 2024, the longest goblin shark on record was recorded to be 20 feet long, while the heaviest was recorded to be 1,800 pounds.    The life span of a Goblin Shark is approximately 60 years, which is quite long for a shark. Generally, deep-sea sharks tend to live longer as a result of their slow metabolism.  While little is known about their intelligence, it is known that when compared to other sharks, their cognitive abilities are very limited. Overall, they are not very intelligent for sharks. Due to their deep-sea environments, they seldom get to interact with humans. On the rare occasion that they do interact with humans, it is often as a result of being a bycatch from deep sea fishing. They are not adapted to be very active & thus are not very aggressive. Individuals do not seem to be very territorial, & seem to migrate throughout their lives. Goblin sharks seem to be solitary animals, apart from reproduction. They do not have complex social behaviors or social structures.  Individual Goblin Sharks are somewhat poor swimmers, & are able to swim through undulatory swimming. Undulatory swimming involves flexing one’s body back & forth, to propel yourself forward. They are able to swim at a maximum speed of 15 miles per hour. They lack agility, however, their body design didn’t evolve to have much agility. Sharks are able to keep negative buoyancy by keeping extra oil stored in their tissues, making them lighter than the water around them.  Unlike humans, sharks do not have long restful periods in which they rest all of their brains. They are only able to turn off half of their brain, & sleep for short periods of time. Generally, sharks will not sleep for longer than 30 minutes at a time, however, they will take these small amounts of sleep frequently.  The Goblin Shark’s diet consists of many different kinds of fish, cephalopods, & large crustaceans. Goblin sharks will hunt in both the day & the night, depending on when their prey is most active. They are not cannibalistic at any stage in their lives. It is not clear how much they eat per day, however, the fuel that they get from the food they eat is very optimized. Their metabolisms are incredibly slow, as they do not have access to much food at low depths. It seems that they locate food by smell, sound, & feeling their electrical fields through a special sensor in their nose.  Goblin Sharks have distinctive pink or light blue skin, & a long spade-shaped nose. Their bodies are long & flabby, lacking much muscle. They have teeth that are long & needle-like, & protrude from their mouth. As of 2024, they are listed as Least Concern by the IUCN Red List.    The Mating Tactics, Techniques, Habits, Practices, Procedures, & Strategies Of The Goblin Shark  The Goblin Shark breeds via sexual reproduction, & has 2 distinct sexes. The age at which they sexually mature is currently unknown. Once they do mature, they will begin looking for a sexual partner. It is unfortunately not clear if they breed multiple times a year, & how their breeding rituals differ as they age.  After 2 individuals meet & begin to copulate, the male will eject his sperm into the female, fertilizing the eggs through internal fertilization. Once the male has ejected his sperm, it is unclear if he will have any further contact with his shark pups. The pups will gestate for an unclear amount of time. Goblin Sharks are ovoviviparous, meaning that although the female will gestate the children inside of her, & will give birth to live young, the children gestate in eggs & do not develop a placenta. The female will give birth to a small litter of pups, & will not help to raise them, instead leaving them to fend for themselves in the vastness of the ocean.   The Distribution Of The Goblin Shark Goblin Sharks are found all around the world in the Northern & Southern Hemisphere & in the Indian, Atlantic, & Pacific Oceans. They can be found in the Upper Continental Slope, which is the area in which the Continental Shelf will begin to slant into the open ocean. Individuals are able to live in waters as deep as 4,265 feet (1299.972 meters) deep. Throughout their lives, they will not remain in the same place, & will migrate quite a lot. During the daytime, they will remain at very low depths. However, during the night, they will rise to the oceanic surface, or more shallow waters.   The Scientific Detailings Of The Goblin Shark Goblin Shark Teeth are quite long & slender, which is useful for ripping flesh from bone while hunting. Apart from smell & sound, Goblin Sharks are able to hunt by sensing the electrical fields created by their prey. They sense these electrical fields through many electroreceptors, known as Ampullae of Lorenzini, located in their nose. Individuals are able to sense these electrical fields from no more than 3 feet away. Tapeworms are known to inhabit the internal organs of the Goblin Shark, most commonly species Litobothrium amischensis, & Marsupiobothrium gobelinus. Parasitic Copepods may also inhabit the gills of the Goblin Shark, however this is not confirmed.   Their phylum is Chordata, meaning that they developed these 5 characteristics all species under the phylum of Chordata develop 5 similar characteristics either in adulthood or as juveniles. The characteristics that they develop include, a notochord, dorsal hollow nerve cord, endostyle or thyroid, pharyngeal slits, & a post-anal tail. Their class is Chondrichthyes. This is a class of fish that are primarily composed of cartilage. This class can be compared to the class Osteichthyes, which is a class of fish that are primarily composed of bone. A few universal characteristics for any fish in the class Chondrichthyes are that they all are jawed vertebrates, they have paired fins, paired nares, scales, & a heart with chambers in a series. Their order is that of Lamniformes. This is an order of sharks. A few universal characteristics for creatures classified within this order are that they possess two dorsal fins, an anal fin, five gill slits, eyes without nictitating, & a mouth cavity that extends behind the eyes. Creatures from this order also usually maintain a higher body temperature than the water surrounding them. This order has the largest macropredatory shark to ever exist, the Otodus Megalodon. Their family is Mitsukurinidae, a family that contains a lineage of ancient deep-sea sharks. As of 2024, The Goblin Shark is the only living Shark in this family. Their genus is Mitsukurina, named in honor of the Japanese Zoologist Kakichi Mitsukuri. Their binomial name is Mitsukurina Owstoni.   Directories / Credits   Citation No. 1: “Tokyo Bay”, Written by Unknown, & Published on July 20th, 1998. Published by Encyclopaedia Britannica. Retrieval Date: July 21st, 2024.  https://www.britannica.com/place/Tokyo-Bay   Citation No. 2: “Marine Encyclopedia Of Sharks & Rays: Goblin Shark”, Written by Unknown, & Published at an Unknown Date. Published by Oceana. Retrieval Date: July 21st, 2024.  https://oceana.org/marine-life/goblin-shark/   Citation No. 3: “The Goblin Shark”, Written by Unknown, & Published at an Unknown Date. Published by the National Museum Of Natural History. Retrieval Date: July 21st, 2024.  https://ocean.si.edu/ocean-life/sharks-rays/goblin-shark   Citation No. 4: “Mitsukurina Owstoni”, Written by Vanessa Jordan, & Published at an Unclear Date. Published by the Florida Museum of Natural History. Retrieval Date: July 21st, 2024.  https://www.floridamuseum.ufl.edu/discover-fish/species-profiles/mitsukurina-owstoni/   Citation No. 5: “Goblin Shark”, Written by B. Finucci, & C. A. J. Duffy, & Last Updated in 2017. Published by the International Union For The Conservation of Nature Red List. Retrieval Date: July 21st, 2024.  https://www.iucnredlist.org/species/44565/2994832   Strategic Partnerships Reel Guppy Outdoors SharkedSkooler   Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

The History Of Santa Rosa Island, California In today’s article we will be delving into the history of Santa Rosa Island, California. Santa Rosa Island is a relatively small island approximately 26 miles off the coast of Santa Barbara, South Central California. It is the second largest island in the Channel Islands Archipelago of California. The island is approximately 83.12 square miles (215.27981 square kilometers) in area.    Despite being so large, the island has a minuscule population of 2 people, making for an extremely low population density of 0.024061597690087 per square mile (0.009290234880828 per square kilometers). The island is well known for its beautiful hiking trails, rolling hills, deep canyons, & mesmerizing coastline. Many tidepools are located along its coastline, which are frequently explored by curious visitors.  The lagoons nearby the island are often used as whale nurseries, & dolphin nurseries for young dolphins. Overall, the oceans surrounding Santa Rosa Island are incredibly biodiverse, housing over 100 endangered animals, & serving as a breeding ground for many more.   Santa Rosa Island has a long & intriguing history, beginning at least 12,000 years ago. The Chumash Native Americans & their ancestors have inhabited the island for at least 12,000 years, as seen in the multiple village sites along the island’s coastline. The oldest fossilized human found in North America was found in one of the Archaeological Sites on the island, & became known as the Arlington Springs Man. The Arlington Springs Man is the fossilized remains of a man or a woman who lived on Santa Rosa Island approximately 13,000 years ago. During this time, Santa Rosa Island was 150 feet lower then it is now, due to glaciation. Santa Rosa Island was at this time connected by land bridges to the other Northern Channel Islands, forming an ancient landmass known as Santa Rosae. At its largest, the Ancient Santa Rosae was approximately 125 kilometers from east to west. When the Pleistocene ended & the glaciers melted, the sea level rapidly rose, submerging Santa Rosae, & creating the modern northern Channel Islands. In this article, we will be discussing the history of Santa Rosa Island, the Aboriginals of Santa Rosa Island, the most destructive man-caused & natural disasters to affect Santa Rosa Island, & the economy of Santa Rosa Island. With that being said, let us delve into this beautiful isle.    The Documented History Of Santa Rosa Island, California As A Part Of The Ancient Landmass of Santa Rosae Santa Rosa Island’s history begins as a part of an ancient landmass known as Santa Rosae. As mentioned in the Introduction, Santa Rosae was a large island off the coast of California that existed up until approximately 10,600 years ago. It was approximately 125 kilometers across from East to West, & largely forested until it began to become submerged. The island had a thriving marine & terrestrial environment, & even had a species of Pygmy Mammoth known as the Channel Islands Mammoth, which was approximately 17% smaller then their mainland counterparts. The Chumash Native Americans inhabited this large landmass, fishing off of its coast, & building small village settlements along it. The natives thrived on the island, & continued to thrive even after it began to become rapidly submerged underwater. At first, the Anacapa Islands split away, with Santa Cruz Island following after. Santa Rosa & San Miguel Island remained one landmass for 300 more years, until finally fragmenting into their modern form.    Before Colonization By The Spanish Historical Events From 11,000 B.C.  The first evidence of humans inhabiting Santa Rosa begins 13,000 years ago, with the Arlington Springs Man. The Arlington Springs Man are the fossilized human remains of a Chumash individual. It is the oldest human remains found in North America.   Historical Events From The 1500’s On an expedition to the isle in 1585, it was recorded that there were at least 3 villages along the coast. This was recorded by Juan Rodriguez Cabrillo. The Chumash Natives used this island as an area for fishing, & built these villages to sustain themselves. The fish & marine animals harvested around the island were often traded between the Island Chumash & the Mainland Chumash as a part of their extensive trade networks. The Chumash referred to the island as “Wi-ma”.  After Becoming A Part Of Mexico  Historical Events From the 1800’s By the early 1820’s, the remaining Chumash natives were removed or left to the mainland. The island would remain uninhabited for almost 20 years, until the island was given as a land grant to a group of ranchers. In 1838, the island was given to Jose Antonio & Carlos Barrelo Carillo, a set of prominent brothers from Santa Barbara, California. The ownership of the island was officially transferred to them in 1843, however they would sell the island only a month after. The Carillo Brothers sold the island to Carlos’s daughters & their husbands, Alpheus Thompson & John C. Jones.  After Becoming A Part Of California  Historical Events From The 1800’s Jones & Thompson were prominent otter huntsmen, who engaged in the trading of otter pelts along California’s coast. As a clause of Thompson & Jones’s ownership, they had to actively improve the island, & industrialize it. To fulfill this, in December of 1843 Thompson shipped materials to the island to build a house, which he would build in 1844. The house was located between Skunk Point & East Point, on an area known as Rancho Viejo. The men began to bring livestock over as well, with 270 cattle, 2 rams, 9 horses, & 51 ewes. Thompson finally moved onto the island, bringing his employees with him. Numerous trails were developed, & much more livestock was brought over from the mainland. Another house with an attached pen was built in 1855, near Becher’s Bay. This new house provided a much more stable area for agricultural use, & for importing as well as exporting goods. In 1859, T. Wallace More purchased Jones’s share in the island.  Unfortunately, the partnership between More & Thompson fell sour as a result of litigation, & combined with a drought on the island, resulted in the majority of the livestock being removed from the island by 1859. More & his brothers began systematically buying out Thompson’s share in the island, until they acquired the last shares in 1870. Due to an ongoing drought in California, herding cattle wasn’t exactly profitable, so the More Brothers turned to sheep instead. The brothers developed a large sheep ranch on the island, & acquired between 40,000 & 80,000 sheep to send to the island. They built large pens with redwood trees, & began planting crops as sheep feed. They abandoned the pens at East Point, & focused solely on the pens at Becher’s Bay.  By 1873, a wharf, multiple houses, & a 2-story barn were constructed at the Becher’s Bay Ranch Site. Unfortunately Tragedy soon struck, in the form of another extreme drought that lasted from 1876 to 1878. More had to slaughter 25,000 sheep, however he installed a boiler in one of the barns to render their corpses. At the end of the slaughters, there were between 15,000 & 20,000 sheep remaining on the isle.  In 1881, one of the More Brothers, A. P. More, purchased all the shares in the island. He managed to recover the sheep population to an astounding 80,000 head by 1883. The farming of the sheep was very efficient, with an experienced sheerer being able to sheer up to 100 fleeces each day. A.P More unfortunately passed away in 1893, & the ensuing litigation led to More’s heirs selling shares to Vail & Vickers Co.  Historical Events From The 1900’s By 1902, Vail & Vickers Co. owned the entire island. Walter J. Vail & J. V. Vickers were prominent cattlemen from Arizona, who at the beginning of the 20th century purchased Santa Rosa Island. They decided to advance their operations in Southern California, & thought the island would be an ideal place to continue.  After purchasing the entire island, they built a small schoolhouse for the employees’ children, & repaired all pens, & old structures. Beginning in the 1910’s, Vail would import deer & elk for sport hunting. Due to the start of World War 2, the Vaquero, the primary boat used to transfer cattle between the island & the mainland, was confiscated for military use. A second boat, the Vaquero 2, was soon commissioned, & continued to be used until operations ceased. The brothers would farm cattle on the island until 1998, when the last of their cattle was transferred off the island. Depending on the season & conditions, the island would have between 3,000 & 7,000 cattle at any given time until the operations ended.  After the last of the cattle were transferred out, Vail & Vickers purchased a 25-year reservation for a tract of 7 acres near Becher’s Bay. This reservation expired in 2011, when the ownership of the island was officially transferred over to the National Park Service. Modernly, the island is the site of eco-tourism, & many serene campgrounds.  The Aboriginals Of Santa Rosa Island, California The Chumash Indigenous Peoples  The Chumash are a group of Native Americans who historically inhabited the areas from Malibu all the way to Paso Robles & Morro Bay. They also inhabited 3 of the channel islands, those being Santa Rosa Island, Santa Cruz Island, & Santa Miguel Island. They were most concentrated in the Santa Barbara Channel region. At their peak, their population reached approximately 25,000.  They spoke the Chumashan languages, of which there are 3 predominant ones. There are North Chumash, Central Chumash, & Island Chumash. The Island Chumash was primarily spoken by those on Santa Rosa Island, Santa Cruz Island, & Santa Miguel Island. These languages, are unfortunately classified as extinct & have been since the early 1960’s.    Their diets primarily consisted of seafood such as the black abalone, pacific littleneck clam, bent-nosed clam, Olympia oysters, angular unicorn snails, butternut clam & red abalone. Individuals would catch these animals by spear fishing, or by using nets. For catching certain species, a primitive kind of fishing rod was popular. Historically acorns were found commonly in their diets. in the form of being ground up & cooked in a soup. They would also feast on the fruits of the laurel sumac tree.  They had very adept maritime technologies, in the form of dug-out canoes, which no doubt helped them in their expansion to the various Channel Islands. In addition to increasing their land, it also helped them make trade with other villages & populations of natives. At their peak, they had approximately 150 independent villages, the largest being located in Santa Barbara. The smaller villages tended to be located in areas that did not have immediate access to a spring, lake, or ocean. Each village had access to the majority of the resources southwest California has to offer, because they all traded with each other.  In addition to being inventive with their hunting techniques, they were also extremely successful at basket weaving. They would weave baskets for various purposes such as holding food, or using them to catch animals. To ornately decorate the baskets, they would occasionally add clay beads. These clay beads could also be used for jewelry or other decorative items. They are not on record to have attacked any other neighbouring natives.  In Chumash villages each family had their own house, & each village would have a sweat-house. A sweat-house is a house is a place for cleansing. Each individual village would have something similar to a playground for the children. This playground would have a flat outdoor area  used to play games such as Payas, Peon, & Shinny. There would also be other areas in the village used for dancing, as dance was very important in Chumash culture.  Their ceremonial dance grounds would have a high fence of tule mats, as tule mats serve as a nice windbreak. Inside of the sacred dance ground, was a semi-circular area in which shamans & priests would perform religious rituals. Little is known about their religion, however they were most certainly polytheistic. They were also skilled at medicine, & using the local herbs & plants to produce medical treatments.  The Most Destructive Man-Caused & Natural Disasters To Affect Santa Rosa Island, California There are not many disasters recorded to have affected Santa Rosa Island negatively enough to be reported on.  The Economic State Of Santa Rosa Island Santa Rosa Island does not have much of an economy on its own, as it doesn’t have very much to offer outside of eco-tourism. The entire island only has 2 year round residents, & almost businesses outside of the few campgrounds. The island sees approximately 20,000 visitors each year, the majority of which are domestic tourists. Overall, Santa Rosa Island does not have a very large economic impact on California, or much of its own economy.  Directories / Credits Citation No. 1: “California’s Atlantis: The Lost Superisland of Santa Rosae”, Written By Nathan Masters, & Published on August 7th, 2018. Published by the Public Broadcasting Service of Southern California. Retrieval Date: July 10th, 2024. https://www.pbssocal.org/shows/lost-la/californias-atlantis-the-lost-superisland-of-santarosae Citation No. 2: “Santarosae”, Written by Jon Erlandson, & Published on February 5th, 2023. Published by Islapedia. Retrieval Date: July 10th, 2024. https://www.islapedia.com/index.php?title=Santarosae Citation No. 3: “Arlington Man”, Written by Dr. John R. Johnson, & Published on June 7th, 2016. Published by the National Park Service. Retrieval Date: July 10th, 2024. https://www.nps.gov/chis/learn/historyculture/arlington.htm Citation No. 4: “Santa Rosa Island History & Culture”, Written by Unknown, & Published on April 9th, 2024. Published by the National Park Service. Retrieval Date: July 10th, 2024. https://www.nps.gov/chis/learn/historyculture/santarosaisland.htm Strategic Partnerships Reel Guppy Outdoors SharkedSkooler Our Loyal Patrons Ms. Paloma Rodriguez Ochoa

Marine Biological Hall Of Distinction: Doctor Austin Gallagher  This article is a part of our collection known as the Marine Hall Of Distinction. It is a different series from our main monthly series & has no connection to the main monthly series. In this special collection, we will discuss marine biologists who we feel have served marine biology & oceanography the most. We do this in order to commemorate these marine biologists & to show gratitude for everything they have contributed to our oceans. This collection has no relation to the main monthly series. This series is published on the 25th of every month, shortly after our article on the oceanic environment of a certain region on the 20th.  Today’s marine biologist is the esteemed Doctor Austin Gallagher. Austin Gallagher is an accomplished marine biologist, biologist, & ecologist. He is well known for his work relating to Shark Tracking In Japan, & his description of the largest seagrass bed on Earth. Doctor Gallagher has been featured on the Forbes 30 Under 30 List in the Science Category, & has been honored as a Fulbright Scholar. In addition to these, he has started a new NGO called Beneath The Waves, which aims at tackling issues such as Ocean Health, Shark Conservation, & having more Marine Protected Areas. Over the course of his career, he has led approximately 50 Scientific Expeditions, & published at least 125 scientific articles. In this article, we will discuss the Formative Years & Education Of Doctor Austin Gallagher, The Career & Later Life Of Doctor Austin Gallagher, & the Awards, Accomplishments, Honorables, & Achievements of Doctor Austin Gallagher. With that being said, let us delve into the life of this highly admired shark scientist. The Formative Years & Education Of Doctor Austin Gallagher Doctor Austin Gallagher was born in 1987, in Boston, Massachusetts. As a child, he had a strong interest in Sharks, & Marine Biology as a whole. He was raised in New England, near the coast, which may have helped spark his interest. To prepare him for higher education, Gallagher attended Thayer Academy, & graduated in 2004. Soon after graduating, he was accepted to Loyola University of Maryland. He graduated with his bachelor’s degree in Biology, & a minor in Journalism in 2008. From the years 2008 to 2009, he obtained his Master’s Degree in Marine Science from Northeastern University, as a part of their Three Seas Program. Gallagher worked on his doctoral degree from 2010 to 2015 at the University of Miami, where he studied Shark Behaviours & Psychology.  The Career & Later Life Of Doctor Austin Gallagher Gallagher’s Career began in 2010 when he started his organization Beneath the Waves. Over the years, he gradually began shaping it into a place where citizen scientists, scientists, filmmakers, academics, & artists alike could collaborate on Oceanic & Shark conservation. He officially incorporated the organization as a nonprofit in 2014, in the United States.  Beginning in 2015, he worked on a post-doctoral fellowship with Carleton University of Canada, under the supervision of Doctor Steven Cooke. While working on this fellowship, he led an initiative to track shark & fishing boats, in conjunction with companies such as Google & Oceana. He officially finished this fellowship in 2017, & promptly began working on another project. Soon after, he helped lead a scientific team to sink a decommissioned ship in the British Virgin Islands, to create an artificial reef. This project was named BVI Art Reef, & was successfully completed. Gallagher has done much research in the Bahamas, one of the first examples of which was in 2018. In 2018, he began a project proving the long-term benefits for Sharks in Marine Protected Zones, research which proves the importance of Marine Protected Zones. He also worked on a project proving the high concentration of harmful metals in Sharks from the region, described the genome of the Caribbean Reef Shark, & was the first scientist to utilize 360° cameras to track or monitor marine animals.  In 2018, Gallagher began working full-time as the Lead Scientist with Beneath The Waves.  From 2019 to 2020, Gallagher worked on many different studies in the Caribbean Sea, & the Southern Atlantic Ocean. This research resulted in the discovery of a new species of Bonnethead Shark, & never-before-seen video footage of the Sharpnose Sevengill Shark in the deep sea. In the same year, he tracked sawfish in Biscanye Bay, a species never found on record before. Using various techniques, Gallagher did the first global assessment of Shark Fishing Vessels.  In 2021, he stepped into the role of Chief Executive Officer at Beneath The Waves, where he has remained. In the same year, he was also awarded the Diving Hero Award From The Scuba Diving Magazine. Modernly, Gallagher frequently appears as a wildlife presenter with Discovery & Shark Week, & occasionally appears with National Geographic.  The Awards, Accomplishments, Honorables, & Achievements Of  Doctor Austin Gallagher He won the Blue Marine Science Foundation’s Science Award in 2023. He won the Sea Hero Award from Scuba Diving Magazine in 2021.  He has led over 50 scientific expeditions. He led the first expedition to study deep sea fish off the coast of the Turks & Caicos Islands.  He has published over 100 Scientific Articles.  He is a Fulbright Distinguished Scholar. He was honoured as one of the people on the Forbes 30 Under 30 List in 2016 at the age of 29.  As of 2024, he serves on the Advisory Boards for Hidden Worlds Entertainment, & Colossal.  He was the founder & chief editor of Discoveries, a column in the Frontiers in Marine Science scientific journal.  He founded the nonprofit organization “Beneath The Waves”, dedicated to oceanic & shark conservation.  He is the co-founder & owner of a CBD-infused tea company, known as Tempo Beverages.  He led a Shark Tracking Initiative known as the Global Fishing Watch, in partnership with companies such as Google.  Directories / Credits Citation No. 1: “Dr. Austin Gallagher”, Written by Unknown, & Published at an Unknown Date. Published by Austin Gallagher. Retrieval Date: July 12th, 2024. https://www.austingallagher.com/ Citation No. 2: “Biography”, Written By Unknown, & Published at an Unknown Date. Published by Austin Gallagher. Retrieval Date: July 12th, 2024. https://www.austingallagher.com/bio/ Citation No. 3: “Austin Gallagher”, Written by Unknown & Published at an Unknown Date. Published by National Geographic. Retrieval Date: July 12th, 2024. https://explorers.nationalgeographic.org/directory/austin-gallagher Citation No. 4: “Project Leader: Austin Gallagher”, Written by Unknown, & Published at an Unknown Date. Published by Save Our Seas. Retrieval Date: July 12th, 2024. https://saveourseas.com/project-leader/austin-gallagher/ Citation No. 5: “From Tiger Sharks to Tea”, Written by Rita Buettner, & Published at an Unknown Date. Published by Loyola University Maryland. Retrieval Date: July 13th, 2024. https://www.loyola.edu/explore/magazine/stories/2017/from-tiger-sharks-to-tea.html Strategic Partnerships Reel Guppy Outdoors SharkedSkooler Our Loyal Patrons