Psyops, Information Warfare and the Internet

For the first time in all the years it has operated, the Bulletin of the Atomic Scientists in charge of the Doomsday Clock has added an additional threat alongside nuclear weapons and climate change in their 2019 Doomsday Clock Statement, and that is the intentional corruption of the information ecosystem. Specifically they stated:

“Amid these unfortunate nuclear and climate developments, there was a rise during the last year in the intentional corruption of the information ecosystem on which modern civilization depends. In many forums, including particularly social media, nationalist leaders and their surrogates lied shamelessly, insisting that their lies were truth, and the truth “fake news.” These intentional attempts to distort reality exaggerate social divisions, undermine trust in science, and diminish confidence in elections and democratic institutions. Because these distortions attack the rational discourse required for solving the complex problems facing humanity, cyber-enabled information warfare aggravates other major global dangers—including those posed by nuclear weapons and climate change—as it undermines civilization generally.”

…and

“…threats must be acknowledged before they can be effectively confronted. The current situation—in which intersecting nuclear, climate, and information warfare threats all go insufficiently recognized and addressed, when they are not simply ignored or denied—is unsustainable. The longer world leaders and citizens carelessly inhabit this new and abnormal reality, the more likely the world is to experience catastrophe of historic proportions.”

The internet is arguably the largest battlefield for information warfare to be fought. We’re all subject to a barrage of information munitions in the form of psychological operations. Psyops is defined as “Psychological operations are planned operations to convey selected information and indicators to audiences to influence their emotions, motives, and objective reasoning, and ultimately the behavior of governments, organizations, groups, and individuals.” Even government is not exempt from using psyops against its own citizens.

So what can be done? We must apply critical thinking as never before. More importantly we must recreate information ecosystems that are real, not virtual, in which to place trust. Yes this will require a major restructuring of civilization as we know it. Human’s cleverness are our undoing and much of the rest of life sadly. Sometimes putting the vehicle in reverse to back out of a bad situation is the best solution.

‘Wood wide web’—the underground network of microbes that connects trees—mapped for first time

A fungus known as a Dermocybe forms part of the underground wood wide web that stitches together California’s forests.

Kabir Gabriel Peay

‘Wood wide web’—the underground network of microbes that connects trees—mapped for first time

Trees, from the mighty redwoods to slender dogwoods, would be nothing without their microbial sidekicks. Millions of species of fungi and bacteria swap nutrients between soil and the roots of trees, forming a vast, interconnected web of organisms throughout the woods. Now, for the first time, scientists have mapped this “wood wide web” on a global scale, using a database of more than 28,000 tree species living in more than 70 countries.

“I haven’t seen anybody do anything like that before,” says Kathleen Treseder, an ecologist at the University of California, Irvine. “I wish I had thought of it.”

Before scientists could map the forest’s underground ecosystem, they needed to know something more basic: where trees live. Ecologist Thomas Crowther, now at ETH Zurich in Switzerland, gathered vast amounts of data on this starting in 2012, from government agencies and individual scientists who had identified trees and measured their sizes around the world. In 2015, he mapped trees’ global distribution and reported that Earth has about 3 trillion trees.

Inspired by that paper, Kabir Peay, a biologist at Stanford University in Palo Alto, California, emailed Crowther and suggested doing the same for the web of underground organisms that connects forest trees. Each tree in Crowther’s database is closely associated with certain types of microbes. For example, oak and pine tree roots are surrounded by ectomycorrhizal (EM) fungi that can build vast underground networks in their search for nutrients. Maple and cedar trees, by contrast, prefer arbuscular mycorrhizae (AM), which burrow directly into trees’ root cells but form smaller soil webs. Still other trees, mainly in the legume family (related to crop plants such as soybeans and peanuts), associate with bacteria that turn nitrogen from the atmosphere into usable plant food, a process known as “fixing” nitrogen.

The researchers wrote a computer algorithm to search for correlations between the EM-, AM-, and nitrogen-fixer–associated trees in Crowther’s database and local environmental factors such as temperature, precipitation, soil chemistry, and topography. They then used the correlations found by the algorithm to fill in the global map and predict what kinds of fungi would live in places where they didn’t have data, which included much of Africa and Asia.

Local climate sets the stage for the wood wide web, the team reports today in Nature. In cool temperate and boreal forests, where wood and organic matter decay slowly, network-building EM fungi rule. About four in five trees in these regions associate with these fungi, the authors found, suggesting the webs found in local studies indeed permeate the soils of North America, Europe, and Asia.

By contrast, in the warmer tropics where wood and organic matter decay quickly, AM fungi dominate. These fungi form smaller webs and do less intertree swapping, meaning the tropical wood wide web is likely more localized. About 90% of all tree species associate with AM fungi; the vast majority are clustered in the hyperdiverse tropics. Nitrogen fixers were most abundant in hot, dry places such as the desert of the U.S. Southwest.

Charlie Koven, an Earth system scientist at the Lawrence Berkeley National Laboratory in California, applauds what he says is the first global forest microbe map. But he wonders whether the authors missed some important factors that also shape the underground world. Hard-to-measure processes such as nutrient and gas loss from the soil could affect where different microbes live; if so, the study’s predictions could be less accurate, he says.

Despite such uncertainties, having the first hard numbers for which tree-associated microbes live where will be “very useful,” Treseder says. The findings could, for example, help researchers build better computer models to predict how much carbon forests will squirrel away and how much they will spew into the atmosphere as the climate warms, she says.

Crowther, however, is ready to make a prediction now. His results suggest that as the planet warms, about 10% of EM-associated trees could be replaced by AM-associated trees. Microbes in forests dominated by AM fungi churn through carbon-containing organic matter faster, so they could liberate lots of heat-trapping carbon dioxide quickly, potentially accelerating a climate change process that is already happening at a frightening pace.

That argument is “a little bit more tenuous” to Treseder. She says scientists are still puzzling out how different soil fungi interact with carbon. But, she adds, “I’m willing to be convinced.”