These photos, taken by Torcuato Pulido Mantas in early July 2018, show typical examples of very healthy coral growth after just one month on new Biorock reefs in Cozumel, Mexico. The corals shown were naturally damaged and were rescued from dying when transplanted onto the Biorock reefs a month before. Around half the coral species now being grown are shown in these photos.
2018 International Summit on Fisheries & Aquaculture
Biorock Technology: A Novel Tool for Large-Scale Whole-Ecosystem Sustainable Mariculture using Direct Biophysical Stimulation of Marine Organism’s Biochemical Energy Metabolism
Biorock mariculture technology is a novel application of marine electrolysis, which grows solid limestone reefs of any size or shape in seawater, that get stronger with age and are self-repairing. Biorock reefs can be designed to provide habitat speciﬁc to needs of hard and soft corals, sponges, seagrass, ﬁshes, lobsters, oysters, giant clams, sea cucumbers, mussels, and other marine organisms of economic value, or grow back severly eroded beaches at record rates. Biorock reefs, and surronding areas, have greatly increased settlement, growth rate, survival, and resistance to severe environmental stress from high temperatures, sedimentation, and pollution for all marine organisms observed. This allows marine ecosystems to survive otherwise lethal conditions and be regenerated at record rates even in places with no natural recovery. These remarkable ﬁndings seem to result from weak electrical ﬁelds poising the membrane voltage gradients all forms of life use to generate biochemical energy (ATP and NADP), causing enhanced growth of all species. Biorock technology provides a new paradigm for whole-ecosystem sustainable mariculture that generates its own food supplies, the antithesis of conventional mono-species mariculture dependent on external food inputs, whose wastes cause eutrophication that kills off surrounding subsistence ﬁsheries. Potential applications include ﬁsh, crustacean, and bivalve mariculture, algae mariculture, pharmaceutical producing species, and ﬂoating reefs for pelagic ﬁshes. The power requirements are small and can be provided by solar, wind, ocean current, and wave energy. The techniques are ideally suited for community—managed mariculture, if investment funding were available to subsistence ﬁshing communities.
Thomas J.F Goreau was educated in Jamaican schools and hold degrees from MIT, Caltech, and Harvard. President and founder of The Global Coral Reef Alliance, he has dived on coral reefs across the Caribbean, Paciﬁc, Indian Ocean, and SouthEast Asia for more than 60 years. He has published more than 150 papers and written and edited books on scientiﬁc photography, marine ecosystem restoration, and soil fertility restoration. He is co-inventor of the HotSpot method for predicting coral bleaching from satellite data and of the Biorock method for regenerating marine ecoystems and eroding coastlines.
Six spectacular new Biorock coral reefs have been installed in June by the Global Coral Reef Alliance (GCRA) and our local partners, Qualti SA, and the Cozumel Coral Reef Restoration Program (CCRRP), in Cozumel, Mexico, the world’s most popular diving destination.
The new projects are a short swim from Sand Dollar Sports, and are illuminated at night with blue and cyan LED lighting for night time divers and snorkelers. Thousands of people swim at this site every day, located on the west shore of Cozumel, between the cruise ship piers.
The six new Biorock projects were funded by Minecraft, one of the world’s most popular computer games, in conjunction of their launch of new “Minecraft Underwater Worlds”.
Biorock reefs can be built in any size or shape, and greatly increase the settlement, growth, survival, and resistance of corals and all marine life to severe environmental stresses such as high temperature, sediment, and pollution. Biorock reefs survive when all around them die during severe stress events, and they grow back reefs and severely eroded beaches at record rates even where there is no natural recovery. They are therefore the last and only hope to save coral reefs from runaway global warming, global sea level rise, pollution, and human greed.
The six new Biorock reefs in Cozumel are being planted with broken coral fragments rescued from dying by the Cozumel Coral Reef Restoration Program.
These reefs are shaped like Minecraft game characters, turtles, turtle eggs, and an Axolotl, Mexico’s most iconic wildlife species, a giant salamander that is nearly extinct from pollution and overharvesting for the aquarium trade and traditional purported medical uses. This was designed by high school students from Monterrey, Mexico.
Each structure is surrounded by Biorock coral reefs on all sides onto which the Cozumel Coral Reef Restoration Program is transplanting severely injured broken corals rescued from tourist diving reefs.
Cozumel is the most popular diving destination in the world, but the coral reefs there, like those all around the world, have been steadily dying back because of global warming, algae overgrowth caused by sewage pollution, new diseases, physical damage caused by divers, and cruise ship propellers stirring up sediments.
The new Cozumel Biorock coral reef regeneration projects are a first step to bring back Mexico’s vanishing corals and fish populations and build a better and more sustainable future.
As the corals grow at exceptional rates, fishes and all forms of marine life will swarm around them. Coral transplantation has already started and will continue over the years to come. They will be spectacular at night, lit by blue and cyan LEDs, which attract swarms of fish and plankton.
GCRA, CCRRP, and Sand Dollar Sports will be posting many spectacular photographs and videos of these projects over the years to come. Please look at them on our web sites and better yet, come to Cozumel and see them for yourself! People who don’t see our spectacular coral reef restoration projects simply can’t believe that they are possible!
I Gusti Agung Prana, age 70, passed away Friday, July 6th, 2018 at the Wing International Sanglah Hospital Bali, after a long illness of cancer. Mr. Agung Prana, our beloved father was born July 12th, 1948 in Mengwi, Bali. He is survived by his wife, I Gusti Ayu Arini, one daughter, I Gusti Agung Desi Pertiwi, and two sons, I Gusti Bagus Mantra and I Gusti Ngurah Kertiasa.
He was a dedicated man who served his life for Bali Tourism since the late 60s. He has had a chance as Vice President of Bali Tourism Board and Chairman of the Association of Indonesia Travel Agencies (Bali Chapter). His last 3 decades was devoted to sustainable eco-tourism in Pemuteran, North Bali restoring degraded marine ecosystems through biorock reefs method. He was a founder of Karang Lestari Foundation and worked together with the spirit and culture of the local people, changing poor areas into a high visited tourist destination. This brought Pemuteran gained many international and national awards such as Tourism for Tomorrow Awards – Finalist (2018), The Equator Prize of UNDP (2017), Best Sustainable Tourism Development of Indonesia Tourism Ministry (2012), Tri Hita Karana Award (2011), PATA Gold Award (2005), and Best Underwater Ecotourism Project of SKAL International (2002).
On behalf of family members, Mr. Bagus Mantra apologized for all the mistakes of his father. He conveyed that funeral services (Plebon ceremony) will be conducted on Saturday, July 21st, 2018 at the Jero Gede Bakungan, Umabian, Peken Blayu Marga, Tabanan Regency. Friends may call at the funeral home Saturday morning from 7 to 9 a.m. or one hour prior to the services.
GCRA assessed coral health, algae, and water quality all around Boracay in 1997 and 2007, and made recommendations on tertiary sewage treatment to recycle waste nutrients on land and keep them off the reef. The first report was banned by the Minister of Tourism, and both were ignored.
Article published on April 5th 2018 in the BBC News site
Original article @ bbc.com/news.
Philippines to temporarily close popular tourist island Boracay
5 April 2018
Boracay is popular with foreign and local tourists
The Philippine island of Boracay will be closed to tourists for six months following concerns of damage to its once pristine shores.
A spokesperson for President Rodrigo Duterte said the closure would begin on 26 April.
Earlier this year Mr Duterte said Boracay was turning into a “cesspool” and threatened to shut it down.
The island, known for its white-sand beaches, attracted nearly 2 million visitors last year.
The decision has prompted concern for the thousands of people employed in Boracay’s busy tourist trade.
The island is home to around 500 tourism-related businesses, which drew in annual revenue of $1.07bn (£760m) last year. The government said affected companies will receive financial aid.
It’s not clear how the shutdown will be implemented, though the department of trade and industry had earlier proposed closing the island down in phases, saying a total shutdown would be detrimental to businesses and livelihoods.
The move follows growing concern over the island’s environmental health.
Officials had warned businesses had been releasing wastewater into the surrounding waters.
In February, Mr Duterte condemned the island’s hotels, restaurants and other tourist businesses, accusing them of dumping sewage directly into the sea.
Image: GETTY IMAGES A mountain of trash sits on a hillside on Boracay
“I will charge you for serious neglect of duty [for] making Boracay a fishpond or a sewer pool,” Mr Duterte said at the time.
“Either [you] clean it up or I will close it permanently. There will be a time that no more foreigners will go there.”
Article by Diana Crow published on April 5th 2018 in the Sierra Club magazine
Original article @ sierraclub.org.
Electric Shark Boogaloo
Is there such a thing as an electric fence, but for sharks?
PHOTO BY ISTOCK | WHITCOMB RD
BY DIANA CROW | APR 5 2018
Marine biologist Marcella Pomárico Uchôa stood at the edge of a small boat in the Bimini region in the Bahamas, watching a floating piece of white PVC pipe, rigged with wires and a bag of minced meat, bob up and down with the waves. It wasn’t long before the sharks arrived.
The sharks weren’t shy about their interest in the minced meat. They charged toward it at full-speed, only to swerve away at the last moment. In contrast, the Bermuda chubs and bar jacks swam right up to the rig and grabbed a snack without hesitation. Something was changing the sharks’ behavior.
The two species Uchôa’s study focused on—bull sharks (Carcharhinus leucas) and Caribbean reef sharks (Carcharhinus perezi)—can sense electric fields in the water. Their electrosensory organs—called the ampullae of lorenzini—are sensitive enough to detect the electric activity in their prey’s nervous systems, allowing sharks to lunge at their prey blind.
As Uchôa and her colleagues reported in the journal Animal Biology last year, the wire and PVC rig emitted a low voltage electric current that seemed to befuddle the two species of shark. Ordinary fish—without an electromagnetic sixth sense—didn’t seem to notice the electricity at all.
As far as the observers on the boat could tell, the sharks weren’t hurt by the electric field. “Sharks just avoid them because it’s confusing,” explains the study’s co-author Thomas Goreau of the Global Coral Reef Alliance, an organization that restores coral reefs by building artificial electric reefs.
This confusion could open up new markets for Goreau’s coral reef restoration business. Back in 1987, Goureau was writing coastal zone management plans for hotels and fisheries in Jamaica when he met an architect and inventor named Wolf Hilbertz. Hilbertz had been developing construction materials for underwater buildings when he found that electrically charged metal attracts dissolved minerals in seawater. Over time, these minerals build up, forming a material similar to concrete–or to the calcium carbonate of coral reefs.
The two began designing synthetic electric reefs—which they called “Biorocks”—meant to slow coastal erosion and provide habitat for coral reef species in areas that had seen massive coral reef damage. About 400 were installed in over a dozen countries including off the coast of Panama, the Saya de Malha bank near the island nation of Seychelles, and Gili Trawangan in Indonesia. Most are close to shorelines and draw from the nearby islands’ power grids, but Goreau and his colleagues have been experimenting with using renewable power sources such as solar panels and wave power generation.
In thirty years, Goreau had never seen a predatory shark hanging out near a Biorock reef. Then, while giving a talk at the University of the Basque Country in Spain, he met Uchôa, who was a marine science grad student at the time. The two began looking into whether Goreau’s experience could be backed up by real-world experiments, and whether Biorocks could function sort of like underwater electric fences, steering sharks away from popular diving areas.
Shark bait experiment in progress. Photo courtesy of Marcella Pomárico Uchôa.
Using sharks’ electromagnetic sense to direct shark traffic away from humans isn’t a new idea. Several electricity-emitting “shark-repelling”products–most of them wearable or attachable to surf boards—are already on the market. Whether these electromagnetic shark deterrents actually work is another question. “It depends on what you mean by working,” says marine biologist Charlie Huveneers of Flinders University in Australia. “If you’re asking whether they would stop or protect people all of the time in 100% of situations, then no, they don’t work. If you’re asking whether they have an effect on the behavior of sharks, then yes, they do work.”
Shark deterrent field tests by academic marine biologists—who are independent of the deterrent-making companies—have found that those effects can vary quite a bit. Sometimes, the sharks seem to hesitate in the presence of an electric field but go in for the kill anyway. Sometimes, they don’t go for the bait but stay within a few meters of the boat. The effects differ between species, and a few people have even been bitten while wearing electromagnetic shark “deterrents”.
Ideally, says says shark biologist Ryan Kempster of the University of Western Australia, the electrical field produced by a shark deterrent should be tailored specifically to the size and species of the shark in question, because every species detects and responds differently to electric fields of varying strengths and frequencies.
“The problem with shark deterrents,” adds says Huveneers, “is that there’s no real regulation in terms of what the deterrents need to be able to do to be called ‘deterrent’. And manufacturers can make a lot of claims about the device that they’re selling without ensuring the veracity of those claims,”
If Biorocks work to keep sharks away from beaches that are popular with divers, such a scenario could be beneficial to sharks, since they are more likely to be hurt or killed by humans than the other way around. But Goreau freely admits that more research is needed. The PVC pipe rig in Uchôa’s experiment emitted an electric field very similar to that of a Biorock reef but not identical. In the majority of the experiments, sharks didn’t swerve from the PVC pipe rig until they were just a few feet away from the reef, which could mean that Biorock placement would have to be strategic to prevent sharks from swimming through areas that the field doesn’t reach to.
Goreau admits that it’s possible that no one has seen large predatory sharks swimming around Biorock reefs simply because there are so few large sharks left worldwide. Rays and nurse sharks, which can also sense electricity, live on and near Biorocks and do not appear to be affected by the Biorocks’ electric fields. It is possible, though, that the electrical field could have some effect on the behavior of sharks, rays, and skates that is not readily apparent. That alone is reason to be cautious, according to Uchôa.
In the meantime, Goreau remains excited. Students monitoring the Biorock reefs in Indonesia have noticed large numbers of young fish swimming around the artificial reefs. Because sharks, rays, and skates are the only fish known to have electrosense, this raises the question of what is bringing them there. “We do get enormous recruitment of larval fish when the power is on, much more so than when the power is off,” says Goreau. “There’s an enormous need to expand this work.”
Coral reefs make up less than one-quarter of 1 percent of the Earth’s surface,1 yet supply resources worth an estimated $375 billion annually, according to the International Union for Conservation of Nature (IUCN).2 More than 500 million people around the world depend on coral reefs for protection from storms, food, jobs and recreation, and they provide a home to more than 25 percent of fish species and 800 hard coral species.
As for their importance to their surrounding ecosystems, it is immense, and the sheer diversity of species that depend on coral reefs for spawning, breeding and feeding is equally impressive. There are 34 recognized animal phyla, for instance, and 32 of them are found on coral reefs (even rain forests count only nine different phyla among their midst).3
Sometimes referred to as “rain forests of the sea,” it’s estimated that coral reefs may support up to 2 million different species and act as essential nurseries for one-quarter of fish species.
Coral reefs also serve as carbon sinks, helping to absorb carbon dioxide from the environment, and represent an irreplaceable source of protection for coastal cities. Their importance as a food source is also considerable, as healthy coral reefs can provide about 15 tons of fish and other seafood per square kilometer (.38 square mile) per year.4
Unfortunately, corals are in severe decline. According to conservation organization World Wildlife Fund (WWF), two-thirds of coral reefs worldwide are under serious threat and another one-quarter are considered damaged beyond repair.5 There may, however, be hope, even for damaged reefs, as new technology offers a chance for reefs to regrow at a surprisingly fast pace.
Biorock Technology Restores Coral Reefs
In 2000, it was stated at the International Coral Reef Symposium that about 94 percent of Indonesia’s coral reefs were severely damaged. This included Pemuteran Bay, where the once-thriving coral reef was largely barren. Biorock technology proved to be the answer, restoring the reef in just over a decade:
“Pemuteran formerly had the richest reef fisheries in Bali. The large sheltered bay was surrounded by reefs teeming with fish. The natural population increase was greatly augmented by migration of fishermen from Java and Madura, where inshore fisheries had been wiped out by destructive over-exploitation.
Destructive methods, like use of bombs and cyanide followed their use in other islands, and steadily spread until most of the reefs had been destroyed. The offshore bank reefs that had been dense thickets of coral packed with swarms of fishes, were turned into piles of broken rubble, nearly barren of fish.”6
The Karang Lesteri Project, highlighted in the video above, began in June 2000, when the first “coral nursery” was built at the site. Ultimately, 70 Biorock coral reef structures of different sizes and shapes were planted in the area, restoring the area’s diversity and ecosystem. Formerly known as Seament and Seacrete, Biorock was developed by the late professor Wolf Hilbertz and scientist Thomas Goreau, president of the nonprofit organization the Global Coral Reef Alliance (GCRA).
Projects are now being operated in Indonesia, Bali, Jamaica, the Republic of Maldives, Papua New Guinea, Seychelles, Phuket, Thailand and elsewhere. The technology starts with metal structures that are planted into the reef. Transplanted fragments of live coral (that have been damaged by storms, anchors or other mishaps) are attached and the structure is fed low-voltage electricity to accelerate the growth process. GCRA explains:7
“The Biorock® process … is a new method that uses low voltage direct current electricity to grow solid limestone rock structures in the sea and accelerate the growth of corals providing homes for reef fish and protecting the shoreline. The electrical current causes minerals that are naturally dissolved in seawater to precipitate and adhere to a metal structure. The result is a composite of limestone and brucite with mechanical strength similar to concrete.
Derived from seawater, this material is similar to the composition of natural coral reefs and tropical sand beaches … This patented process increases the growth rate of corals well above normal, giving them extra energy that allows them to survive in conditions that would otherwise kill them. At the same time these structures attract huge numbers of fish, and also provide breakwaters that get stronger with age.”
GCRA states that Biorock reefs grow at a rate of 1 to several centimeters of new rock per year, which is about three to five times faster than normal. While artificial reefs, which are sometimes made by sinking ships, planes, cars, concrete or other man-made materials, will sometimes attract fish and sponges that settle on their surface, the Biorock reefs ultimately turn into true, living coral reefs, courtesy of the growth of limestone. According to GCRA:8
“Coral larvae, which are millimeter-sized freely-swimming baby corals, will only settle and grow on clean limestone rock. This is why conventional artificial reefs made of tires or concrete rarely exhibit hard coral growth. But, when these coral larvae find a limestone surface, they attach themselves and start to grow skeletons. Mineral accretion is exactly what they are searching for. As a result, there are very high rates of natural coral settlement on Biorock structures.”
Is Biorock Sustainable, and Does It Withstand Hurricanes?
Funding to take Biorock to the next level is limited, with most projects so far acting as pilot projects to demonstrate how the process works. And some coral reef experts, such as Rod Salm, senior adviser emeritus with the Nature Conservancy, have suggested the process is too cost prohibitive to work on a large scale.9 Others have pointed out that its dependence on electricity could also be problematic environmentally, although some of the structures are powered via solar panels.
Further, GCRA evaluated damage to the structures in the Caribbean after hurricanes Hanna, Ike and Irma and found them to be remarkably unfazed. While even large shipwrecks in South Florida were damaged or moved during hurricane Andrew, for instance, the Biorocks’ open frameworks allowed water to flow through the structures, sparing them the brunt of the damage.
“For growing corals, we make open frameworks, so the corals can benefit from the water flow through the structure, just as they do in coral reef,” GCRA notes. “As a result of their low cross section to waves, they dissipate energy by surface friction as waves pass through them, refracting and diffracting waves rather than reflecting them. Their low drag coefficient means that they survive waves that would move or rip apart a solid object of the same size.”10
In research published in the journal Revista de Biologia Tropical by Goreau and colleagues, it’s noted that artificial reefs are often discouraged in shallow waters because of concerns that they could damage surrounding habitat during storms. However, in the case of the Biorock restorations, “the waves passed straight through with little damage,” and the researchers said the “high coral survival and low structural damage” after hurricanes suggests the process is effective even in areas that may be hit by storms.11
Another study by Goreau, published in the Journal of Marine Science and Engineering, suggests Biorock electric reefs are able to grow back severely eroded beaches in just a few months. The study noted:12
“Biorock reefs stimulate settlement, growth, survival, and resistance to the environmental stress of all forms of marine life, restoring coral reefs, sea grasses, biological sand production, and fisheries habitat. Biorock reefs can grow back eroded beaches and islands faster than the rate of sea level rise, and are the most cost-effective method of shore protection and adaptation to global sea level rise for low lying islands and coasts”
What’s Causing Coral Reefs to Die?
Coral reefs are facing numerous threats, including rising water temperatures that lead to coral bleaching, in which coral reject symbiotic algae, turn white, and are at increased risk of dying. Overfishing, which disrupts the ecological balance in the reef, as well as destructive fishing practices, such as the use of cyanide, dynamite, bottom trawling or muro-ami (which involves the use of nets and banging the reef with sticks), are also threats, WWF notes.13
Reefs are also harmed by tourism via boating, anchor drops and people diving, snorkeling around and touching the reefs (or collecting coral), as well as construction, mining and logging, which send excess sediment into rivers and the ocean, where it blocks precious sunlight from reaching the coral reefs. There’s even a live rock trade, in which coral is mined for building materials or to sell as souvenirs, with no regard for the destruction it causes to the planet.14
Pollution is another major threat, including that from industrial farm runoff, which is fueling the growth of marine algae blooms, which alter the food chain and deplete oxygen, leading to sometimes-massive dead zones. Even the sunscreen chemical oxybenzone is known to kill off coral reefs. It’s estimated that between 6,000 and 14,000 tons of sunscreen enter coral reef areas worldwide every year.
Much of this sunscreen contains oxybenzone, which research found to be damaging at minute levels — just 62 parts per trillion, or the equivalent of one drop of water in 6.5 Olympic-sized swimming pools.15 Aside from entering the water on swimmers, oxybenzone gets washed down the drain when you shower, entering sewage systems. Once in the environment, as a study published in the Archives of Environmental Contamination and Toxicology revealed, there are four key ways oxybenzone is damaging coral reefs:16
Exacerbates coral bleaching
Damages coral DNA, making them unable to reproduce and triggering widespread declines in coral populations
Acts as an endocrine disrupter, causing baby coral to encase themselves in their own skeletons and die
Causes gross deformities in coral, such as coral mouths that expand five times larger than normal
Other Techniques Restoring Coral Reefs
Numerous innovative programs are underway with the goal of restoring the world’s coral reefs. The Coral Restoration Foundation is using a program called the coral tree nursery, which is based on the fact that coral are able to grow and reproduce via fragmentation. That is, if a piece breaks off, it can reattach and grow again, forming a new colony.
Their program involves PVC “trees” that are tethered to the ocean floor. Coral fragments are then hung from the “branches.” The fragments come from their coral nurseries, where coral are nursed for up to nine months until they’re read to be attached to the tree. They’ve already produced tens of thousands of corals in their South Florida nurseries.17
In addition, the organization is working to create “healthy thickets of genetically diverse coral that can sexually reproduce and encourage natural recovery.” An estimated 22,000 corals have been “outplanted” in the Florida Keys, in part by volunteer divers, for this purpose.18
Other experts have suggested that releasing natural viruses, known as phages — short for bacteriophage — onto coral with bacterial disease could essentially wipe out the disease, saving the coral.19 Of course, prevention is even better than a cure, and this means taking steps to curb coral declines in the first place.
Changes to industrial agriculture that limit chemical runoff and help sequester carbon into the soil could have meaningful benefits to coral reefs. It’s estimated that one-third of the surplus carbon dioxide in the atmosphere stems from poor land-management processes that contribute to the loss of carbon, as carbon dioxide, from farmlands. This, in turn, contributes to ocean acidification that harms coral, according to Defenders of Wildlife.
“Seawater absorbs some of the excess CO2 from the atmosphere, causing the oceans to become more acidic. As a result, the oceans’ acidity has increased by 25 percent over the past 200 years. These acidic conditions dissolve coral skeletons, which make up the structure of the reef, and make it more difficult for corals to grow.”20
So, in addition to being a responsible swimmer or diver — and not touching or breaking coral — as well as using only natural, reef-friendly sunscreen, support farmers who are using diverse cropping methods, such as planting of cover crops, raising animals on pasture and other methods of regenerative agriculture. This, in addition to the innovative methods like Biorock being used to restore barren reefs, can help protect the ocean’s reefs from further damage.
The Frankenword glossary (Science: 359:154, 2018) omits Frankencorals! It covers death-dealing Frankentechnologies that alarm the public, but life-giving electrical technologies are completely excluded. We’re shocked: none of your examples involves electricity like the Global Coral Reef Alliance’s Biorock electrolysis technology, the sine qua non for genuine membership in the Frankenclub!
Despite widespread electrophobia, Biorock’s electrifying results are entirely beneficial: greatly increased settlement, growth, survival, and resistance to stress of all marine organisms examined, plants and animals, mobile or sessile (T. J. Goreau, 2014, Electrical stimulation greatly increases settlement, growth, survival, and stress resistance of marine organisms, Natural Resources, 5:527-537 http://dx.doi.org/10.4236/nr.2014.510048). Instead of convulsions and rigor mortis, Biorock corals uniquely survive severe high temperature bleaching events that kill more than 95% of corals around them, and quickly smile back at us because the low currents used are in the natural range and show no negative effects, except for predatory sharks, which get confused and won’t bite food right in front of them (M. P. Uchoa, C. C. O’Connell, & T. J. Goreau, 2017, The effects of Biorock-associated electric fields on the Caribbean reef shark (Carcharhinus perezi) and the bull shark (Carcharhinus leucas), Animal Biology, DOI 10.1163/15707563-00002531).
Biorock is the only marine material construction material that grows solid self-repairing structures 2-3 times harder than concrete (T. J. Goreau, 2012, Marine electrolysis for building materials and environmental restoration, p. 273-290 in Electrolysis, J. Kleperis & V. Linkov (Eds.), InTech Publishing, Rijeka, Croatia), and regenerates severely eroded beaches at record rates (T. J. F. Goreau & P. Prong, 2017, Biorock reefs grow back severely eroded beaches in months, Journal of Marine Science and Engineering, Special Issue on Coastal Sea Levels, Impacts, and Adaptation, J. Mar. Sci. Eng., 5(4), 48; doi:10.3390/jmse5040048), rapidly grow beach sand from calcareous algae, restore seagrasses and salt marshes under severe stress where all other methods fail, keep whole coral and oyster reef ecosystems alive when they would die, and grow them back at record rates where there is no natural regeneration (T. J. Goreau & R. K. Trench (Editors), 2012, Innovative Technologies for Marine Ecosystem Restoration, CRC Press). Biorock Indonesia and our partners are about to start Biorock mangrove and Nipa palm restoration of illegally deforested Borneo mangroves for orang utan sanctuaries and to sequester atmospheric CO2 as peat in what we expect to be the single most cost-effective carbon sink.
The reason marine life gets a charge from the Biorock method is that we operate in the beneficial range that galvanizes natural biophysical membrane voltage gradients all forms of life use to make biochemical energy, so they don’t need to use up to half their energy pumping protons and electrons backwards to maintain membrane voltage gradients, whose collapse means death (as caused by high voltages and currents). That’s why we call it electro-tickling, the antithesis of electrocuting high voltage currents everybody is monstrously terrified of!
The lawsuit by Centro de Incidencia Ambiental (CIAM) against dredging that would damage coral reefs in front of the Panama Canal (based on GCRA reef surveys with the Galeta Marine Laboratory) was admitted by Panamanian Courts on 8 January 2018. This means that the construction works in the port must be suspended while the Court provides a final merits decision. Because we filed an amparo de garantías action, we argued infringement of the constitutional rights to a healthy environment, sustainable development and health. Because of these arguments, once this type of lawsuit is admitted it immediately suspends the legal effects of the resolution that approved the project’s EIA until a final decision is made by the Supreme Court.
Please read more on the news that was published on January 29 in Panama’s leading newspaper, La Prensa: