Recently I participated in a local festival to educate the public about the Rice’s Whale – the newly described species in the Gulf of Mexico that is now listed as critically endangered, possibly the most endangered whale in the world’s oceans. I honestly did not know enough about it to provide much education and chose to do terrapin conservation at my table instead (something I know more about) but have since learned much about this new member of the Gulf community.
One of the more frequent comments I heard during the event was “I did not know we even had whales in the Gulf”. This is understandable since we rarely see them – most of us have never seen one. When we think of whales we think of colder climates like Alaska, New England, and the colder waters off California. But many large whales must give birth to their smaller calves in warmer waters – so, they make the trek to tropical locations like Hawaii and Florida to do so. But there are also resident whales in the tropical seas.
You first must understand that the term “whale” does not only mean the large creatures of whale hunting fame, but any member of the mammalian order Cetacea. Cetaceans include both the large baleen whales – like the blue, gray, and right whales – but also the toothed whales – like the sperm, orca, and even the dolphins.
The Right whale is another critically endangered whale found in the Gulf of Mexico. Image: NOAA.
There are 28 cetaceans that have been reported from the Gulf, 21 of those routinely inhabit here. Most exist at and beyond the continental shelf – hence we do not see them. Only two frequent the waters over the shelf – the Atlantic Bottlenose Dolphin and the Atlantic Spotted Dolphin, and only one is routinely seen near shore – the Atlantic Bottlenose Dolphin.
This image shows the location of the continental shelf and thus the location of most of the whales found in the Gulf of Mexico. Image: NOAA.
But offshore, out at the edge of the continental shelf, exists several species of large and small cetaceans. The endangered Sperm, Sei, Fin, Blue, Humpback, and Northern Right whales have been seen. Of those only sperm whales are common. Others include several beaked whales (which resemble dolphins but are much larger), large pods of other species of dolphins, pygmy and dwarf sperm whales, pygmy and false killer whales (as well as the killer whale itself), and other baleen whales such as the Minke and Bryde’s whale.
The Bryde’s whale is one of interest to this story.
The Bryde’s whale (pronounced “brood-duss” – Balaenoptera edeni) is a medium sized baleen whale, reaching lengths of about 50 feet and weighing 30 tons. It is often confused with the larger sei whale. They are found in tropical oceans across the planet and are not thought to make the large migrations of many whales due to the fact it is already here in the tropics for birth, and its food source is here as well. They reside in the northeastern Gulf of Mexico extending from the DeSoto Canyon, off the coast of Pensacola, to the shelf edge near Tampa. They appear to travel alone or in small groups of 2-5 animals. They feed on small schooling fish, such as pilchards, anchovies, sardines, and herring. Their reproductive cycle in the Gulf is not well understood.
The Bryde’s whale was thought to be the only resident baleen whale in the Gulf of Mexico. Photo: NOAA.
Strandings have occurred – as of 2009, 33 have been logged. There are no records of mortality due to commercial fishing line entanglement, but vessel strikes have occurred. Due to their large population across the planet, they were not considered for listing under the Endangered Species Act, but that may change in the Gulf region due to human caused mortality. Between 2006-2010 it was estimated that 0.2 Bryde’s whales died annually due the vessel strikes.
In the 1960s Dr. Dale Rice described the Gulf of Mexico population as a possible subspecies. It is the only baleen whale that regularly inhabits the Gulf of Mexico. And ever since that time scientists examining stranded animals thought they may be dealing with a different species.
In the 1990s Dr. Keith Mullin began examining skull differentiation and genetic uniqueness from stranded animals of the Gulf population. Dr. Patricia Rosel and Lynsey Wilcox picked up the torch in 2008. In 2009 a stranded whale, that had died from a vessel strike, was found in Tampa Bay and provided Dr. Rosel more information. In 2019 a stranded whale, that had died from hard plastic in gut in the Everglades, was examined by Dr. Rosel and her team and, with data from this skull, along with past data, determined that it was in fact a different species. The new designation became official in 2019.
The newly described Rice’s whale only exists in the Gulf of Mexico. Photo: NOAA.
The new whale was named the Rice’s whale (Balaenoptera ricei) after Dr. Dale Rice who had first describe it as a subspecies in the 1960s. With this new designation everything changed for this whale. This new species only lives in the Gulf of Mexico, and it was believed there were only about 50 individuals left. Being a marine mammal, it was already protected by the Marine Mammal Protection Act, but with this small population it was listed as critically endangered and protected by the Endangered Species Act.
New reviews and publications began to come out about the biology and ecology of this new whale. Rice’s whales do exist alone or in small groups and currently move between the 100m and 400m depth line along the continental shelf from Pensacola to Tampa. Diet studies suggest that it may feed near the seafloor, unlike their Bryde’s whale cousins. They may have lived all across the Gulf of Mexico at the 100-400m line at one time. They prefer warmer waters and do not seem to conduct long migrations.
The area where the Rice’s whale currently exists. Image: NOAA.
Being listed under the Endangered Species Act, NOAA National Marine Fisheries (NMFS) was required to develop a recovery plan for the whale. NMFS conducted a series of five virtual workshops between October 18 and November 18 in 2021. Workshop participants included marine scientists, experts, stakeholders, and the public. There were challenges identified from the beginning. Much of the natural history of this new whale was not well understood. Current and historic abundance, current and historic distribution, population structure and dynamics, calving intervals and seasonality, diet and prey species, foraging behavior, essential habitat features, factors effecting health, and human mortality rates all needed more research.
At the end of the workshop the needs and recommendations fell into several categories.
Management recommendations
Create a protected area
Restrict commercial and recreational fishing in such – require ropeless gear
Require VMS system on all commercial and recreational vessels
Require reporting of lost gear and removal of ghost gear
Risk assessment for aquaculture, renewable energy, ship traffic, etc.
Prohibit aquaculture in core area and suspected areas
Reduce burning of fossil fuels
Prohibit wind farms in core area
Renewable energy mitigation – reduce sound, night travel, passive acoustic
Develop spatial tool for energy development and whale habitat use
Require aquaculture to monitor effluent release
Develop rapid response focused on water quality issues
Develop rapid response to stranding events
Reduce/cease new oil/gas leases
Reduce microplastics and stormwater waste discharge
Work with industry to use technologies to reduce noise
Reduce shipping and seismic sound within the core area
Restrict speed of vessels
Maintain 500m distance – require lookouts/observers while in core
Consider “areas to be avoided”
Monitoring recommendations
Long-term spatial monitoring
Long-term prey monitoring
Electronic monitoring of commercial fishing operations
Necropsies for pollution and contaminants
Outreach and Engagement are needed
Top Threats to Rice’s Whale from the workshop Include:
Small population size – vessel collisons
Noise
Environmental pollutants
Prey – Climate change – marine debris
Entanglement – disease – health
Offshore renewable energy development
The Endangered Species Act (ESA) requires the designation of critical habitat for listed species. In July 2023 NOAA proposed the area along the U.S. continental shelf between 100-400 meters depth as critical habitat. Comments on this designation were accepted through October 6, 2023.
The proposed protection zone for the Rice’s whale including the core area. Image: NOAA.
Vessel strikes are a top concern. It is understood that the most effective method of reducing them is to keep vessels and whales apart and reduce vessel speeds within the approved critical habitat.
On May 11, 2021, NOAA Fisheries received a petition submitted by five nongovernmental agencies and one public aquarium to establish a year-round 10-knot vessel speed limit in order the protect the Rice’s whale from vessel collisions. The petition included other vessel mitigation measures. On April 7, 2023, NOAA published a formal notice in the Federal Register initiating a 90-day comment period on this petition request. The comment period closed on July 6, 2023, and they received approximately 75,500 comments. After evaluating comments, and other information submitted, NOAA denied the petition on October 27, 2023.
NOAA concluded that fundamental conservation tasks, including finalizing the critical habitat designation, drafting a species recovery plan, and conducting a quantitative vessel risk assessment, are all needed before we consider vessel regulations. NOAA does support an education and outreach effort that would encourage voluntary protection measures before regulatory ones are developed.
On that note, the Bureau of Ocean Energy Management (BOEM) did issue voluntary precautionary measures the industry could adopt to help protect the Rice’s whale. These include:
Training observers to reduce vessel collisions.
Documenting and recording all transits for a three-year period.
All vessels engaged in oil and gas, regardless of size, maintain no more than 10 knots and avoid the core area after dusk and before dawn.
Maintain 500m (1700 feet) distance from all Rice’s whales.
Use automatic identification system on all vessels 65’ or larger engaged in oil and gas.
These suggestions would not apply if the crew/vessel are at safety risk.
So…
This is where the story is at the moment…
This is what is up with the Rice’s whale in the Gulf of Mexico.
2 Rosel, P.E., Mullin, K.D. Cetacean Species in the Gulf of Mexico. DWH NRDA Marine Mammal Technical Working Group Report. National Marine Fisheries Service. Southeast Fisheries Science Center.
7BOEM Issues Voluntary Precautionary Measures for Rice’s Whale in the Gulf of Mexico. 2023. U.S. Department of Interior. Bureau of Ocean Energy Management.
8NOAA Fisheries Denies Petition to Establish a Mandatory Speed Limit and Other Vessel Mitigation Measures to Protect Endangered Rice’s Whales in the Gulf of Mexico. NOAA Fisheries News. FB23-079. Gulf of Mexico Fishery Bulletin. October 27, 2023.
The Panhandle of Florida is home to many estuaries along the coast, from the Escambia Bay System in the west to the Apalachicola Bay System in the east. These estuaries are very important and are the intersection where rivers (fed from their respective watersheds) meet the Gulf of Mexico and contain many different organisms that help filter the waters before they reach the Gulf. These organisms include oysters, marsh plants, seagrasses, scallops, tunicates, and other invertebrates. In this two-part article, we will explore marsh plants, seagrasses, oysters, and scallops.
Marsh Plants
Marsh Plants is a broad term for a family of grasses that lines the shore and contain grasses like Smooth Cordgrass (Spartina alterniflora), Saltgrass (Distichlis spicata), and Gulf Cordgrass (Spartina spartinae). These plants help trap sediments before they enter the estuary and are excellent at erosion prevention. When the water encounters the plants, it slows the flow, and this allows for sediments to collect. Marsh Plants are a great tool for shoreline restoration and are a major part of the Living Shorelines Program. The roots of the plants are also very efficient at removing nutrient pollutants like excess nitrogen and phosphorus which are major influencers in eutrophication. Marsh Plants also absorb carbon dioxide from the atmosphere and have been tabbed as “superstars of CO2 capture and storage.” (CO2 and Marsh Plants)
Marsh Grass and Oyster Reef in Apalachicola, Florida – Thomas Derbes II
Seagrasses
Seagrasses are different than Marsh Grasses (seagrasses are ALWAYS submerged underwater), but they offer some of the same ecological services as Marsh Grasses. The term seagrasses include Turtle Grass (Thalassia testudinum), Shoal Grass (Halodule wrightii), Widgeon Grass (Ruppia maritima), and Manatee Grass (Syringodium filiforme) to name a few. Seagrasses help maintain water clarity by trapping suspended sediments and particles with their leaves and uptake excess nutrients in their roots. Seagrasses are very efficient at capturing carbon, capturing it at rates up to 35 times faster than tropical rainforests. (Carbon Capture and Seagrasses) They also provide habitat for crustaceans, fish, and shellfish (which can filter the water too) and food for other organisms like turtles and manatees.
Grassbeds are also full of life, albeit small creatures. Photo: Virginia Sea Grant
Oysters
Crassostrea virginica (or as we know them, the Eastern oyster) is a native species of oyster that is commonly found along the eastern coast of the USA, from the upper New England states all the way to the southernmost tip of Texas. Eastern oysters are prolific filter feeders and can filter between 30-50 gallons of water per day. As filter feeders, they trap nutrients like plankton and algae from the environment. In areas of high eutrophication, oysters can be very beneficial in clearing the waters by trapping and consuming the excess nutrients and sediments and depositing them on the bottom as pseudo-feces. With oyster farms popping up all over the Gulf Coast, the filtering potential of estuaries is on the rise. (Between the Hinge)
Oysters, The Powerful Filterers of the Estuary – Thomas Derbes II
Scallops
Bay Scallops (Agropecten irradians) were common along the whole Florida Gulf Coast, but their numbers have taken a recent decline and can only be found in abundance in the estuaries to the east of St. Andrews Bay in Panama City, Florida. Scallops make their home in seagrass beds and are filter feeders. While scallops do not contain the filtering potential of an oyster (scallops filter 3 gallons of water per day as an adult), they are still a key part of filtering the estuary. Just like oysters, scallops feed off of the suspended particles and plankton in the water column and deposit them as pseudo-feces on the bottom. The pseudo-feces also help provide nutrients to the seagrasses below.
Bay Scallop. Photo: FWC
I hope you enjoyed this first article on filterers in the estuary system. While oysters are known as the filterers of the estuary, I hope this has opened your eyes to the many different filterers that call our estuary home. Stay tuned for Part 2!
Organized and sponsored by Florida Sea Grant, the “Stem to Stern” workshop in November 2023 at the Emerald Coast Convention Center marked a significant gathering in marine conservation and management. This event drew together legal experts, representatives from the Florida Fish and Wildlife Conservation Commission (FWC), local marine resource coordinators, law enforcement, and industry stakeholders to tackle critical issues facing Florida’s marine environments. Through discussions that ranged from legal frameworks for boating and waterway access to environmental conservation strategies, the workshop facilitated a deep dive into the complexities of marine policy and stewardship. Discover new programs, insights, and collective expertise shared at “Stem to Stern.”
Florida Sea Grant Boating and Waterways Workshop
November 2, 2023 Emerald Coast Convention Center
1250 Miracle Strip Parkway SE – Ft. Walton Beach FL
9:00 – 9:25 WELCOME AND INTRODUCTIONS
Welcome
Rick O’Connor (Florida Sea Grant UF IFAS Extension)
Moderators –Mike Norberg and Jessica Valek (Okaloosa County)
3:15 – 3:45 WRAP UP – Robert Turpin (Escambia County Marine Resources)
PROGRAM SPONSORS
Acknowledgement
We extend our deepest gratitude to all who contributed to the success of the “Stem to Stern” workshop. To our esteemed speakers, whose expertise and insights into marine conservation and management have been invaluable, we offer our sincere thanks. Your presentations were not only informative but also inspirational, guiding us toward a more sustainable future for our waterways.
A special acknowledgment goes to the members of the planning and program committee. Your dedication and hard work in organizing this event did not go unnoticed. From the initial planning stages to the execution of the workshop, your efforts have been the backbone of this successful gathering.
We also want to thank the authors of the surveys that have provided us with essential data and perspectives. Your research and analysis contribute significantly to our understanding of the challenges and opportunities within Florida boating and waterways.
Lastly, we are incredibly grateful for the support from our sponsors. Your generosity and commitment to Florida Sea Grant and marine conservation have been crucial in bringing this workshop to life. Your support not only made this event possible but also highlights your dedication to safeguarding our marine ecosystems.
Together, we have taken an important step towards protecting and enhancing Florida’s waterways. Thank you for your contributions, commitment, and shared vision for a sustainable future.
Information edited and compiled by: L. Scott Jackson, Chantille Weber, and Amon Philyaw, UF/IFAS Extension Bay County
An Equal Opportunity Institution. UF/IFAS Extension, University of Florida, Institute of Food and Agricultural Sciences, Andra Johnson, Dean. Single copies of UF/IFAS Extension publications (excluding 4-H and youth publications) are available free to Florida residents from county UF/IFAS Extension offices.
The leatherback sea turtle is the largest of the five species that have been found in the northern Gulf of Mexico. With a carapace (top shell) length between 6-7 feet and weighing between 800-1000 pounds it is truly a magnificent creature. Any encounter with them is amazing.
Most encounters occur with fishermen or divers who are out searching for artificial reefs to fish or dive. Though very rare, they have been known to nest in this area. They feed exclusively on jellyfish and will follow them close to shore if need be. But what do leatherbacks do with most of their time? Do they hang offshore and follow jellyfish in? Do they circle the entire Gulf of Mexico and we see them as they pass? Based on past studies, many encounters with this turtle occur in the warmer months. They often become entangled in commercial fishing longlines set in the central Gulf of Mexico. But what do they do during the fall and winter? One of the tagging projects presented at a recent workshop tried to answer that question.
The project was led by Dr. Christopher Sasso of the National Oceanic and Atmospheric Administration. The tag chosen for this was a satellite tag. Since the leatherback must surface to breath air, and often is found near the surface following jellyfish, orbiting satellites would be able to follow them. As we mentioned in Part 1, catching the creature is step 1, and catching a six-foot 1000-pound sea turtle is no easy task.
The team used a spotter aircraft to locate the turtles. Once found, the pilot would radio the chase boat who would zip in with a large net. The net was connected to a large metal hoop and was designed to give way once it was around the turtle. Once in the net the turtle was hauled onto a small inflatable boat where the work of tagging could be done. They would measure the animal, take blood samples, place a PIT tag within them (similar to a microchip in your pet) and then attach the satellite tag by a tether to the tail end of the turtle before releasing it. The entire operation took less than 30 minutes.
Between 2015-2019 19 leatherbacks were tagged in the northern Gulf. 17 of these were females and 2 were males. Data obtained from these tags ranged between 63 and 247 days at liberty. The behavior the team noticed was divided into foraging behavior (feeding on jellyfish) and transiting behavior (direct swimming ignoring all).
The turtles foraged in this part of the Gulf until the fall season. At that point most of them moved south along the Florida shelf, past the western peninsula of the state, heading towards the Keys. A few chose to swim directly south against the Loop Current, and a small number remained in the area.
Those moving along the Florida shelf appeared to be foraging as they went. Those crossing the open Gulf may have foraged some but seemed to be focused on getting south to the nesting beaches. Almost all of the turtles entered the Caribbean on the east side of the Yucatan channel, following the currents, with their final destination being their nesting beaches. When they returned, they did so in the warmer months and used the western side of the channel – again following the currents – until they once again reached the northern Gulf and foraging began again. One interesting note from this study, the two males tagged did not leave the Gulf.
The tagging studies do show that leatherbacks use the Gulf of Mexico year-round. They usually head south to the Caribbean when it gets colder and use the currents to do so. It is during the warmer months we are most likely to see them here foraging on jellyfish. It is an amazing experience to encounter one of these large turtles. I hope you get to experience it one day.
Satellite tracks of leatherback movement in the GoM. Red (2015), Blue (2018), Black (2019).
Image: Sasso (et.al.) 2021.
Reference
Sasso, C.R., Richards, P.M., Benson, S.R., Judge, M., Putman, N.F., Snodgrass, D., Stacy, B.A. 2021. Leatherback Sea Turtles in the Eastern Gulf of Mexico: Foraging and Migration Behavior During the Autumn and Winter. Frontiers in Marine Science., Vol. 8., https://doi.org/10.3389/fmars.2021.660798.
Mark Twain once said – “Everyone talks about the weather, but no one does anything about it.” A similar statement could be made about the Gulf Sturgeon – “Everyone talks about the Gulf sturgeon, but on one has actually seen one.” Those along the coast who have a dock, pier, seawall, or have placed a marina, artificial reef, or oyster farm over state submerged lands, have certainly heard about this fish. It is a portion of the permit in each case. Heck, maybe they have seen one. But it is a fish that many know about but seems elusive to encounter.
Left-facing Gulf sturgeon illustration. Lighter brown than Atlantic sturgeon. Credit: Jack Hornady for NOAA Fisheries.
The Gulf sturgeon (Acipenser oxyrinchis desotoi) is one of 27 species of sturgeon found worldwide. It is a subspecies of the Atlantic sturgeon. These are ancient fish, and they look it. Sturgeons are large, reaching lengths of up to eight feet and 300 pounds. They have armored looking scutes embedded into their skin, giving them a “dinosaur” appearance. They have a heterocercal caudal fin that resembles a shark. And like sharks, they have a cartilaginous skeleton and a spiral valve within their digestive tract. Their head has a pointed snout with whisker-like structures called barbels, which are used for detecting food buried in the sand, and they lack teeth. They have been swimming in our oceans since the era of the dinosaurs, about 225 million years.
Sturgeons are anadromous fish, meaning they (like salmon) spend their adult lives in salt water, traveling miles upriver to their location of their birth to lay eggs. The Gulf sturgeon spends the colder months (November through February) inhabiting our bays and the nearshore Gulf of Mexico in waters less than 100 feet. Now is the time when you may encounter one near the coast. Because they eat very little while in the river systems, they gorge on benthic invertebrates during the winter. They spend most of their time over sand flats and sand bars, using their barbels to detect a variety of buried invertebrates. When sturgeon sense warmer months coming, they begin their long migrations up the inland rivers seeking the area where they were born. At this time, they leap from the water like mullet and make splashes that can be heard from a long distance. They are famous for this in the Suwannee River and have, at times, been a concern for boaters and jet skiers. Many boaters have had to go to the hospital due to collisions with leaping sturgeon.
The Gulf Sturgeon.
Photo: U.S. Geological Survey
Once they reach the spawning grounds, if conditions are right – temperature, water flow, and pH – the female will lay between 250,000 – 1,000,000 eggs which will become fertilized by the smaller males. Most eggs will not survive, but for those that do, the cycle will begin again with the trek back towards the Gulf of Mexico beginning in September.
Why are they declining?
Early in the 20th century they were sought after for their meat and fertilized eggs (caviar). Most of the rivers within their range (which is between the Mississippi and Suwannee Rivers) have been damned, dredged, or both. Dams impede their ability to reach their nursery grounds and dredging can reduce the required conditions to stimulate breeding, or literally bury their eggs. Between these human activities, their numbers declined drastically. In 1991 they were listed both as a federally and state threatened species and have been protected and monitored ever since. The best population, and best chance to encounter one, is in the Suwannee River. This river has been left basically pristine and has not had the habitat altering activities of the others. Locally, they are found in the Escambia, Blackwater, and Yellow Rivers.
Winter is the time to see them in the lower parts of our bay. Maybe you will be lucky enough to encounter one.
References
The Gulf Sturgeon. Florida Fish and Wildlife Conservation Commission.
Recently I was walking along the shore of Santa Rosa Sound near Park West searching for horseshoe crab nesting. I did not find any nesting activity, but the beach was covered with small comb jellies. These creatures reminded me of my childhood days on Pensacola Beach when we used to throw them at each other – “football jellyfish” we would call them. Now that I am an adult, I understand throwing comb jellies was not a good thing, but as a kid it was the thing to do. I mean, these are jellyfish that do not sting. How cool is that. It occurred to me that many reading this article also experienced comb jellies as a kid the way I did, but probably know very little about the animal that was bringing them enjoyment. So, let’s learn a little more about this magical creature.
Comb jellies do not sting and they produce a beautiful light show at night.
The typical jellyfish we encounter at the beach is in the Phylum Cnidaria. They have gelatinous bodies made of a material called mesoglea. They have only one opening into their gut – the mouth, which serves both taking food in and releasing waste. They have a thin tissue called the velum which they undulate allowing them to slowly pulsate through the water column. Extending from their “bell” are tentacles armed with cells called cnidoblast (where they get their phylum name) which house a coiled harpoon possessing a drop of venom called a nematocyst. They use these nematocysts to paralyze their prey, which – depending on the jellyfish and the type of venom they have – range from small planktonic creatures to decent sized fish. To find their prey is a trick. They do have nerves but lack a central nervous system (brain) and so they are aware of what is going on around them, and can react, but memory and thought is not high on their ability list. The tentacles extend into the water column hoping to accidentally snag something to eat. Another thing about cnidarians, is that some do not look like jellyfish at all. Some, like the sea anemones and corals, look more like flowers attached to rocks extending their tentacles up into the water column hoping to get lucky.
The nonvenmous comb jelly.
Photo: Bryan Fluech
Our friend the comb jelly is in the Phylum Ctenophora. They too have a gelatinous mesoglea body with only a mouth. However, their method of swimming is different. Instead of an undulating velum, they have grooves along their sides that house a row of cilia (hair-like structures) that move in a pattern similar to you running your finger over the bristles of a hair comb. These are called ctenes and is where the animal gets its common name “comb jelly”. Some species have tenacles, but our local one does not. Either way there are no cnidoblast or nematocysts. Rather they move through the water column, usually with their mouths facing upwards, collecting planktonic food and, in some cases, other comb jellies. They also lack a brain but have the nerve net and they also possess a structure called a statocyst that lets them know whether they are upside down or not. In this group there are only medusa (the swimming form), the polyps (flower-like form) found in cnidarians is not found in this group. However, they do something that our local jellyfish do not do. They emit light. The cells that do this are located in the grooves where the ctenes are located. The light they produce is blue in color and is magical when hundreds are doing this at night. They use oxygen to produce this light. It first appears bright, but as the oxygen is used it becomes dimmer.
We saw them as something to play with when we were kids. We see them now as a neat member of our marine community and a magical part of living at the beach. Comb jellies are just cool.
