Category: Technology

Being scammed; once again!

The latest tricks are very clever!

I’m too confident, and I need to change. My confidence comes from having been scammed a few years ago, and trying now to be very careful.

But scamming is moving forward, technologically speaking, at a great pace.

Thus, I’m including the following article from The Conversation because it offers fantastic tips.

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AI is supercharging money scams – here’s what you can do to protect yourself

An older man looks at a paper statement, with a confused expression, in front of his laptop.
Financial losses caused by AI fraud are skyrocketing, especially among adults over 60. Volodymyr Hryshchenko on Unsplash

Pawan Jain, University of Michigan Flint

The phone rings, and it’s your grandson’s shaken voice. There’s been an accident, he says, and he needs money before anyone finds out. Except it isn’t him. It’s software that learned his voice from a clip posted online, run by a stranger working through a list of phone numbers.

For years, warnings about artificial intelligence and cybersecurity have focused on corporate networks and government systems. Those threats are real. But if you follow the money in the FBI’s fraud data, a different picture emerges: Staggering sums are flowing out of household accounts.

In its 2025 annual report, the FBI’s Internet Crime Complaint Center began tracking complaints with an AI connection for the first time. Americans filed more than 22,000 such cases and reported roughly US$893 million in losses. Investment fraud accounted for $632 million of that, and people over 60 accounted for $352 million of the losses.

Those figures include only victims who reported to the FBI, and only cases where AI’s role could be identified. The consulting firm Deloitte projects that the actual hit from AI will be much bigger and help push U.S. fraud losses overall to $40 billion by 2027, up from $12.3 billion in 2023.

I’m a finance professor who studies household finance and how people use AI to make money decisions. And I believe the most consequential AI security story right now isn’t unfolding in server rooms, but at kitchen tables.

Old cons, new machinery

None of these scams are new. What AI changed is the cost and the quality of the cons.

Cloning a voice now takes a few seconds of audio and cheap consumer tools. In one study, listeners were able to identify an AI-generated voice only about 60% of the time. Video is heading the same way. In 2024, a finance employee at the architecture and design firm Arup was tricked into wiring about $25 million to fraudsters after they set up a video meeting “staffed” by deepfakes of the chief financial officer and several colleagues.

Phishing has improved, too. Clumsy wording and odd formatting used to give fraudulent emails away. Language models now write clean, fluent messages and can personalize them at scale using details scraped from social media. Deepfake videos of well-known business figures pitch bogus trading platforms.

The same pressure is visible in business losses. The cyber insurer Resilience reported that more than 85% of the losses in its claims portfolio in the first half of 2026 stemmed from attacks aimed at people rather than systems.

Why careful people fall for it

We’d like to believe that only careless people get taken. Research in behavioral finance says otherwise.

These scams are engineered around fear and urgency: a panicked grandchild, a boss demanding a same-day transfer, an investment window that closes tonight. Stress narrows attention and pushes people toward fast, intuitive judgments at the very moment they need slow, deliberate ones. Fraudsters also strike a pose of authority, whether a CFO’s face or a government agency’s letterhead, because most people defer to it.

Fluency matters as well. My own research examines how the smoothness of AI-generated communication leads people to trust it. A message with no typos, in a voice that sounds exactly right, sails past defenses that a clumsy fake would have tripped.

Nobody plans to make a major financial decision mid-panic. That’s exactly why scammers manufacture the panic.

The quiet version of the attack

AI-enabled theft doesn’t necessarily involve talking to the victim. Stolen personal data sells for a few dollars on dark web markets. Criminals then feed it to automated AI agents that probe bank and fintech systems around the clock, testing credentials and hunting for weak points at a speed no human crew could match. Last fall, the AI company Anthropic disrupted an espionage campaign in which an AI agent performed 80% to 90% of the intrusion work against roughly 30 targets, including financial institutions.

When an attacker gets into a customer account, the takeover can be over in minutes. Instant payment platforms like Zelle, built for speed and convenience, become the getaway car. The money typically moves within minutes, and getting it back is almost impossible.

How to protect you and your loved ones

Banks defend their own wire rooms with procedures, not vigilance. Households can borrow those procedures.

Check by calling back. When you get a suspicious call, hang up and dial a number you already know – like your bank’s fraud hotline – and never one the caller or message supplies. The point is to leave the channel the scammer controls. A cloned voice can’t answer your grandson’s real phone.

Trust and verify. You should agree on a robust family code word for emergencies and treat any request for money that lacks it as fake. Require two people in your household to sign off on any large transfer, so nobody moves serious money alone and under pressure. And build in a delay, such as a self-imposed 24-hour wait, before any big payment. Urgency is the scammer’s tool. Slowness is yours.

Add layers of protection. Protect the accounts themselves, too. Turn on two-factor login for financial accounts, and never share a verification code with someone who contacts you. That code is the second lock on your door, and the only reason a caller wants it is to get in.

You should also switch on your bank’s transaction alerts so a takeover announces itself in minutes, and consider a credit freeze, which is free and blocks thieves from opening new accounts with data bought on the dark web.

Protect older people. With $352 million of reported AI-related losses coming from Americans over 60, conversations with older family members are key. Walk through the callback rule and the code word, and ask their bank or brokerage about adding a trusted contact they can call. It costs nothing, and it gives the institution a way to raise an alarm before the money moves.

If money has already moved, you should call your bank immediately, ask it to attempt a recovery, then report the scam to the Federal Trade Commission.

Where habits end, rules should begin

Good habits raise the cost of every one of these scams, but they can’t do it all. This is where the U.S. regulations have fallen behind the technology.

Federal law is supposed to protect consumers from unauthorized electronic transfers, and regulators have said that a transfer set in motion by a fraudster counts as unauthorized even when the victim was tricked into handing over account credentials.

In practice, though, victims of instant-payment fraud often recover little. Banks frequently classify losses as “authorized” when a customer was deceived into approving the payment, and even obvious victims of such takeovers can face long fights over reimbursement.

For example, the Consumer Financial Protection Bureau sued Zelle’s operator and three of the country’s largest banks over their response to alleged fraud in late 2024, then dropped the case in March 2025. New York’s attorney general has since filed her own lawsuit, which a judge allowed to proceed in July. Zelle’s operator denies the allegations and says it will appeal.

A Zelle payments app displays different options for mobile banking on a smart phone.
The payment platform Zelle has become a favorite tool for scammers because stolen money is so hard to retrieve. AP Photo/Patrick Sison

The U.K. has taken a different path. Since late 2024, U.K. banks have been required to reimburse most scam victims up to £85,000, roughly $115,000, with the cost split between the sending and receiving institutions. The logic is that banks are best equipped to fight fraud, since they run security teams and networkwide analytics that can spot suspicious patterns across millions of transactions. What they had lacked was a strong financial reason to deploy them fully, and the reimbursement rule supplied it.

The regulator’s own dashboard shows that 88% of the money lost to eligible scams has been returned to victims since the rules took effect. More telling: An independent evaluation found that scam losses fell by roughly a fifth in the rule’s first year. That shows that when banks bear the losses, they find ways to prevent them.

I believe American regulators and Congress should study that model closely. When payments are instant and irreversible, the risk cannot rest almost entirely on the customer, who is the least-equipped party in the chain.

Pawan Jain, Associate Professor of Finance, University of Michigan Flint

This article is republished from The Conversation under a Creative Commons license. Read the original article.

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The advice is excellent.

A reminder of the tips explained above: Check by calling back., Trust and verify., Add layers of protection., Banking protections,. Protect older people.

They are excellent tips.

And I need to learn this advice and take action, not just republish it and forget it!

Life Beyond Planet Earth

Yet more stories.

It seems as though many articles are exploring life beyond Earth at the moment.

Here is an article from The Conversation.

Have a read.

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Many space missions are searching for life beyond Earth – but are we prepared for the fallout if they succeed?

An illustration of floating round microbes
Several space missions are searching for extraterrestrial life, which could come in the form of microbes. ClaudioVentrella/iStock via Getty Images Plus

Margaret E. Kosal, Georgia Institute of Technology; Dayana Alagirova, Georgia Institute of Technology, and Karryl Kim Sagun Trajano, Nanyang Technological University

Microbes from space have fueled the plots of science fiction mainstays like “Project Hail Mary” and “The Andromeda Strain.” But with more space missions launching each year, finding extraterrestrial life in a microbial form is becoming more plausible. What will the response be back here on Earth if – or when – scientists discover extraterrestrial microbes? Will the international policy and security communities be prepared for the fallout?

When you hear about extraterrestrial life, your mind may go to intelligent life, like the kind present in a lot of Hollywood science fiction. But even the confirmation of microbial life that originated somewhere other than on Earth – which is much more likely – would be a paradigm-shifting event. Thinking about what these consequences might look like early on can help nations and the international community prepare.

Our team is interested in this question. We’re made up of a full professor of international affairs, who earned a Ph.D. in chemistry, and whose expertise is on how emerging science and technologies could affect global conflict and cooperation, as well as an emerging scholar in space policy and security and an expert on social and political implications of frontier technologies, such as AI, space, quantum and energy sources.

Multiple Mars landers have identified large amounts of frozen and liquid water, essential for life, on the red planet. Samples retrieved by Japan’s Hayabusa2 spacecraft from a near-Earth asteroid revealed the presence of uracil, part of RNA, which is a building block of life. Uncrewed space probes like NASA’s Europa Clipper and the European Space Agency’s Jupiter Icy Moons Explorer are on their way to conduct detailed reconnaissance of the planet’s moons and to investigate whether they have conditions suitable for life. https://www.youtube.com/embed/3HN_zx4JJfM?wmode=transparent&start=0 Scientists are searching for life in space using what they know about life on Earth. But what will happen if or when they find something?

Along with data from the James Webb Space Telescope and future missions targeting Saturn’s icy moon Enceladus, the likelihood of discovering extraterrestrial microbial life has increased substantially.

A governance challenge

The discovery of microbial life would expose significant gaps in international governance related to space.

While there are some existing international agreements, including the Outer Space Treaty, that provide space law guidelines, these are ill-equipped to address the complexities posed by extraterrestrial biology.

The Outer Space Treaty, established in 1967, dictates that countries should use outer space peacefully. It also states that no single nation may claim ownership or exert sovereignty over parts of outer space or celestial bodies such as the Moon.

A semicircle-shaped room full of people sitting at tables.
The U.N. Committee on the Peaceful Uses of Outer Space is one of the few existing pathways for the governance of space. United States Mission to International Organizations in Vienna, CC BY-NC-ND

However, it doesn’t have much to say about who can own extraterrestrial organisms or what to do about biosecurity risks. It doesn’t have direction for who can use, preserve or destroy living things, such as bacteria or fungi, that may be discovered in space.

Historical analogies and future pathways

While people have yet to discover extraterrestrial life of any kind, there are some major geopolitical events that can help researchers understand what the consequences might look like.

While the space race of the 1950s and ’60s led to exploration of the Moon, it was driven by a Cold War power struggle between two nations back on Earth. Instead of coming together to explore space, both countries experienced a renewed sense of nationalism. They used the new discoveries that came from the space race to invest in their military capabilities.

On the other hand, researchers can look at how states respond to asteroid threats. Since an asteroid could pose a truly existential threat from space, preventing the worst-case scenario requires cooperation and thinking ahead.

Astronomers have built a global, collaborative network to monitor for and sound the alarm about any potential threats. This network has shown that nations can put aside terrestrial rivalries to work together if they perceive something from space as a truly existential threat.

The International Space Station is another example showing how nations that are competing great powers on Earth work together to cooperate in space. Countries have collaborated to solve issues on the International Space Station that have specific, short-term and clearly identified goals.

The International Space Station, which is a metal structure with solar panels coming off it, floating above Earth
The ISS is an example of countries cooperating in space research. NASA/Roscosmos

These examples show a range of possible reactions to the discovery of space microbes. The situation could renew space races between competing countries and lead to militarization, or it could create unprecedented cooperation.

Potential outcomes

We’ve identified three main possible outcomes to the discovery of microbial extraterrestrial life.

First, there’s a cooperative outcome, reminiscent of the asteroid threat network or the International Space Station. Here, nations collaborate to regulate research, share data, protect the planet or advance specific interests they share.

This pathway isn’t inherently benign or malignant. It could entail expanding the roles of international organizations or creating new legal instruments.

Second there’s a competitive outcome, characterized by strategic rivalry between countries. Like in the space race, nations could fight to be technologically superior. They might try to monopolize access to the extraterrestrial microbes or to leverage biological discoveries from the microbes for their own economic or military advantage.

Scientific breakthroughs derived from extraterrestrial organisms could lead to innovations in medicine, agriculture, energy and beyond. However, the organisms could also be weaponized, intentionally or otherwise, which would amplify biosecurity risks. In this sense, the discovery of microbial life could create a new form of technological competition, one that merges space exploration with biological research and development.

The increasing role of private companies, such as SpaceX, complicates this dynamic. These companies receive contracts from the government, blurring the lines between commercial civilian and strategic activities.

For example, around 60% of all satellites currently orbiting the Earth belong to SpaceX’s Starlink subsidiary. The company can – and has – chosen to block access selectively, in alignment with its political priorities. When commercial interests and national priorities diverge, who has access versus who is denied access can be uncertain.

A rocket moving upwards off a launchpad, with a streak of flame and a plume of smoke coming off it.
A SpaceX rocket launches a load of Starlink satellites into orbit around Earth. AP Photo/John Raoux

Research around biopiracy may come into play. Biopiracy is a term that applies to two primary issues: the patenting of indigenous knowledge or the patenting of natural resources, such as microbes, for profit. The Budapest Treaty prohibits claiming ownership of a naturally occurring microbe on Earth, but there’s no equivalent for microbes in space.

Third is an isolationist outcome, in which states could sever their involvement in international cooperation due to biosecurity concerns or political distrust. The potential for unknown biological risks, however minimal, could trigger precautionary restrictions on data sharing, which limits international collaboration.

Countries may lose or gain allies as they grapple with whether the microbe could cause harm to humans or the environment, or be developed into a biological weapon.

Emerging technologies will also shape these outcomes. Artificial intelligence and machine learning are already integral to scientific research. Scientists use them to process astronomical data and identify potential biosignatures. Nanotechnology and advances in the life sciences and engineering could allow researchers to study, modify or exploit extraterrestrial microbes, if they’re given access to them.

Countries will have to prepare not only for the scientific implications of discovery but also for its societal and political reverberations. The politicization of scientific discoveries from the microbes could complicate or change how countries respond domestically and at the international scale. Misinformation about the microbes could shape policy and public response.

Preparing for the unprecedented

The discovery of extraterrestrial microbial life would not merely mark a scientific milestone. It would be a geopolitical event.

Rather than attempting to predict a singular outcome, policymakers could adopt scenario-based planning approaches in the meantime to anticipate and prepare for a range of possibilities. In these approaches, participants explore multiple futures through structured activities similar to professional or military wargaming or path games, in which they explore multiple outcomes systematically to test strategies, to plan and to analyze potential outcomes under realistic uncertainty.

In our view, the question is not whether humanity will discover life beyond Earth, but whether it is prepared for the consequences when it does.

Margaret E. Kosal, Associate Professor of International Affairs, Georgia Institute of Technology; Dayana Alagirova, Ph.D. Student in the Sam Nunn School of International Affairs, Georgia Institute of Technology, and Karryl Kim Sagun Trajano, Research Fellow for Future Issues and Technology, Nanyang Technological University

This article is republished from The Conversation under a Creative Commons license. Read the original article.

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It states that the discovery of extraterrestrial life would be a ‘geopolitical event’.

I should say so. I would expect the news worldwide would be focussed on this happening!

These academics mentioned above are, I presume, not the only scientists engaged in this.

It would be a fabulous discovery, and I wonder if it will happen before I die!

Cosmology

“That the universe is odd is a given. But it may soon become less odd than it was.”

This quote was in The Economist of August 29th, 2026. It was in the Science & technology section.

I did not understand it but that didn’t stop me from being fascinated by the article.

Then, coincidentally, yesterday Patrice Ayme posted another similarly-themed post. I have his permission to reproduce that post. Again I did not understand it. 😉

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RELATIVITY FASTER THAN LIGHT

FTL FROM REDUCING THE DOMAIN OF DEFINITION OF THE LORENTZ TRANSFORMATION

AbstractQuantum Entanglement has been experimentally demonstrated with utmost certainty to go Faster Than Light, FTL. FTL is NOT signalling (yet!) However, the two notions are extremely close. Special Relativity is conventionally said to exclude Faster-Than-Light signaling because Lorentz transformations can reverse the temporal order of spacelike-separated events. We readjust that notion to make it Entanglement and FTL signaling compatible. 

For an explicit FTL signal with (u=2c), a perfectly ordinary Lorentz transformation indeed assigns a negative reception time in a sufficiently rapidly moving inertial frame.
But this does not demonstrate that physical time travel occurs; it demonstrates that coordinate-time ordering is frame-dependent for spacelike intervals.

The essay argues that the real assumption requiring examination is not the mathematics of the Lorentz transformation, but its unrestricted physical interpretation.
If FTL influences exist, they need not be required to possess the same relativistic transformation properties as ordinary subluminal processes (and they should not as they potentially come from completely different physics)..

The proposed solution is to introduce a preferred Cosmic Manifest Frame (CMF), identified approximately by the Cosmological Microwave Background, CMB, in which FTL propagation and causal ordering are physically defined.
Other inertial frames may assign negative coordinate times to the same FTL process, but those coordinates do not represent reversed physical causality.
Lorentz symmetry is thereby retained as an effective symmetry for domains where it has been experimentally validated, and theoretically deduced, while it is denied fundamental universality.
SQPR adopts precisely such a preferred causal structure, with nonlocal quantum influences propagating at a finite superluminal speed such as TAU (>>>>> c).
The proposal thus attempts to separate the mathematical freedom of spacetime coordinates from the
 physical ordering of causes and effects.

***

We consider first a concrete numerical example of a specific superluminal speed to make the conventional argument found in Special Relativity textbooks (which we think is erroneous) completely explicit.

The standard argument against Faster Than Light SIGNALING goes as follows:

Given Special Relativity, SR, if you allow faster‑than‑light signaling, then the Lorentz transformation between inertial frames implies that some observers will see the signal arrive before it is sent. With two such FTL signals, you can construct a closed causal loop, i.e. a form of ‘time travel’ that violates causality.” 

We will show that the “closed causal loop” construction is superfluous to make this (erroneous) argument work. The traditional argument can be made more compact, no need for a loop. This irony is significant, because the existence of a sharper (erroneous) argument against FTL from SR shows that the physicists who pretend to have demonstrated that FTL is impossible from SR have not bothered to find the sharpest argument, possibly indicating that they find the subject unappetizing… Or could it be that they were afraid to be cut by the sharpness of the argument, because, as it turns out, the argument doesn’t even need a causal loop? … It’s that basic…

First let’s give a concrete example. Let the Faster than Light (FTL) signal speed be u = 2c. And let the speed of S’ relative to S be .6c. And the separation L be two light second (twice Earth-Moon). Computation shows that, BLINDLY using the Lorentz transformation, the FTL signal is received in S’ at MINUS .25 second. In other words, time travel.

We argue that this is absurd, and caused by a misuse of the Lorentz transformation by overextending its domain of definition over the spacelike subset of Poincaré spacetime. (Poincaré discovered and used Poincaré spacetime and its metric months or years before those who plagiarized him. In particular Poincaré found the full Lorentz Transformation, LT, using the most general argument; this is important because, in spite of his success using it, clearly Poincaré took Poincaré spacetime with a grain of salt; the present essay explains a plausible reason why; there is another; later, following Poincaré once again, Einstein confessed he didn’t like Poincaré spacetime… Make no mistake: Poincaré’s argument about getting LT from Poincaré spacetime was entirely mathematically correct; what was not done is the physical restriction we undertake below).

Recapitulation in the general case:

We set the frame S and S’ such that their space and time origin coincide x = x’ = t = t’ = 0. That’s event A. Event B is at (L,T) in S, such that L/T = u, superluminal: u > c.

What is the time of B in S’? T’(B) is: (T – v L/cc)γ 

If the signal is FTL, L> cTL. Then there exists some subluminal v high enough such that:

(T− vL/cc) < 0…. Thus t’(B) < 0.

In other words the FTL signal is received at a negative time in S’ … thus before it is sent. 

This is my sharper version of the erroneous argument many physicists have made against FTL.

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GRAND RETURN OF ABSOLUTE SPACE:

Solution to the riddle of the Lorentz Transformation creating events which have not happened yet: Reject the claim that all inertial frames are equivalent  In other words, as observed in Physical Reality, I mean the cosmos out there, there is a preferred frame in the universe, the one in which the CMB is at rest. (Mach and Newton would opine that this absolute space gives us some hope of explaining inertia. Einstein developed General Relativity in the hope of explaining inertia… He completely failed in that hope, but then we got GPS from GR…)

So postulate a special frame in which FTL is defined and causality is enforced. This is the path of SQPR.

In other frames, you might get “backwards in time” coordinates, but you declare that only the preferred frame’s ordering is physically meaningful.

This does not even abandon standard Special Relativity formally, and certainly not in practice (all the usual formulas are still effective, say for GPS, but one cannot extend the domain of the Lorentz Transformation over the space-like domain). SR has no difficulty representing spacelike intervals. 

What we reject formally is the additional assumption that an FTLphysical influence must transform exactly like an ordinary subluminal signal, with every inertial observer’s time coordinate having equal causal status

The Lorentz transformation is mathematically valid on spacetime, but its physical interpretation as a symmetry of every possible causal process need not be valid. Clearly when Poincaré published on June 5, 1905, the Lorentz Transformation as a rotation of Poincaré spacetime, he could not have guessed the EPR argument of 1935 of the demonstration of FTL by Aspect in 1982 (the latter proving that there are causal processes which are not confined by the speed of light; this outside of the domain of the Lorentz Transformation).

***

We can send (not yet controlled) information faster than light (Bell style experiments). Yes the orientation of the device at A has a real physical effect at B, even if the interval AB is spacelike. That has been amply proven theoretically and experimentally. 

We do not reject Poincaré spacetime… After all, it’s the geometrodynamics of light in the first approximation! But it’s just a first approximation; by the way, that seems to have been the point of view of his creator Henri Poincaré, that’s why he talked about the “ether” so much… Similarly Einstein admitted that, in General Relativity, the speed of light varies… The “ether” was a placeholder concept for the sort of hyperspace in which Physical Reality is embedded and that yours truly advocates for…

There are very deep math reasons for this; the math was not yet developed at the time but Poincaré, the world’s greatest topologist then, may have guessed them..

Instead we posit a preferred frame, the CMF, Cosmic Manifest Frame, as given by the CMB, the Cosmic Microwave Background. Call CMF by the letter S (for Stationary).

  • Causality is fundamentally defined.
  • FTL influences propagate with some speed u>c. In the case of SQPR one cosmic quantum collapse/entanglement speed is hypothesized: TAU. 
  • The Lorentz transformation is an effective symmetry only for certain classes of phenomena (e.g. electromagnetism), not a fundamental symmetry of all physics…. Just like light is not all of physics, and sure has little to say about the QUANTUM ENTANGLEMENT machinery it is subjected to (see Aspect Nobel Prize winning FTL experiments). 

This is exactly the loophole that avoids the “FTL ⇒ time travel” argument.

By the way, this restriction of the Lorentz Transformation proposed here will no doubt do wonders to help avoiding causal time like loops around Black Holes…

As we are into grandiose semi poetic evocations, let’s go all the way. I have an entanglement-clock argument: which questions the elevation of coordinate time to fundamental physical time. In the present essay, I similarly question the elevation of Lorentz-frame equivalence to a universal causal principle.

That gives the essay a much deeper unifying thesis: coordinate transformations need not dictate physical causality. (Ironically that idea is nothing new: it led to the creation of Special and General Relativity; what’s new is to push it beyond the old epistemological frontiers, taking FTL and Entanglement seriously…)

Patrice Ayme

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Just because this entire post is beyond me, it does not mean that I should not publish it. Because there will be others, one hopes, that will understand the science and the mathematics. And the idea that ‘faster than light’ does exist is incredible.

Our changing world.

Now, it is the technology being applied to our electricity supply.

Although we have an array of solar panels here at home, we still have electricity cables coming to the house. In the Winter, when the solar panels are nowhere enough for our electic consumption, we depend on Pacific Power to provide the electic power for our home.

That is why the following article, published by The Conversation, was highly relevant.

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Electric companies don’t need to black out customers to prevent wildfires – here are 3 relatively fast, affordable solutions

Jasmine Garland, University of Colorado Boulder

A severe winter snow drought has left snowpack levels far below normal across the American West in 2026. Without a slow-melting blanket of snow to keep the soil and forests moist, alpine vegetation is drying into a tinderbox earlier than normal and ramping up the fire risk.

The historic dryness means electric utilities are facing a dilemma: how to deliver power through dry, windy regions without accidentally starting a catastrophic fire.

To cope, many utilities are turning to a controversial method pioneered in California: the public safety power shut-off – better known as a preemptive blackout. Imagine your power provider deliberately cutting electricity to your entire neighborhood for hours to days, not because a storm hit or a wire broke, but because the weather forecast is hot, dry and windy. This preventive darkness is fast becoming the new normal for millions of residents in the West.

A map of the Western U.S. shows just about everywhere except northern Idaho far below normal.
Most of the snowpack in the Western U.S. was far below the 30-year average in June 2026, suggesting a dry summer ahead. Snow-water equivalent is a measure of the amount of water in snowpack. National Water and Climate Center

As an energy systems researcher living in the West, I study how our electric grid interacts with these escalating climate risks. I believe utilities have better options that boost fire safety quickly while avoiding the drastic move of shutting off the power or investing in expensive alternatives, such as underground power lines or microgrids.

Billion-dollar spark: Why the West is going dark

To understand why a utility would willingly turn off its own product, you have to look at how the Western grid was built.

Most rural power lines consist of bare, uninsulated aluminum wires strung across thousands of miles of wooden poles, often through rugged forests. If those wires accidentally touch one another or trees or the ground, they can short-circuit, sending off sparks that can start fires.

This system, once considered the greatest engineering achievement of the 20th century, has been responsible for some of the worst fire disasters in U.S. history.

Utility workers in hard hats and reflective vests burying a power line in a trench next to a road.
Burying power lines can keep the wind from blowing tree branches into them, but it can be prohibitively expensive, particularly where transmission lines pass through rugged mountains. AP Photo/Rich Pedroncelli

In California, electricity infrastructure has ignited eight of the state’s 20 most destructive wildfires. The legal and financial fallout can be devastating. In 2019, Pacific Gas & Electric was forced into bankruptcy due to an estimated US$30 billion in wildfire liabilities stemming from equipment-caused blazes, including the 2018 Camp Fire that destroyed much of the town of Paradise. Because utilities are regulated monopolies, they can pass these massive liability costs to their customers over time.

California utilities have been using preemptive outages for several years to avoid causing more fires on hot, dry, windy days. Today, that strategy has spread beyond the state. According to the Western Electricity Coordinating Council, the independent grid reliability authority for the West, 24 western power entities had used preemptive shut-offs by 2026.

Colorado’s Xcel Energy implemented its first major preemptive blackout in 2025. Some of these outages have left communities without power for up to five days.

Chart shows how the number of utilities and agencies with policies for preemptive blackouts increased from 16 in the years before 2025 to 24 in 2026 alone
The number of utilities and agencies with policies of using wildfire preemptive blackouts has risen quickly in recent years in Western states. Jasmine Garland, based on WECC data, CC BY-ND

Fortunately, keeping communities safe does not have to mean leaving them in the dark. There are ways utilities can modernize electric system infrastructure quickly that lower the fire risk and keep the power flowing.

Solution 1: Covered conductors

The quickest, most cost-effective physical fix is to use covered conductors. Think of the electrical cords in your house. If you touched the bare copper wire inside, it would spark. But you don’t get shocked by household cords because they are wrapped in plastic insulation.

Utilities like Southern California Edison are actively wrapping their high-risk mountain wires in heavy, weather-resistant polymer insulation. By the end of 2025, SCE had installed over 700 circuit miles (1,126 kilometers) of this insulated “tree wire” in high-fire districts over the span of about a year and committed to modify an additional 1,481 miles (2,383 kilometers) by 2028.

A worker stands by a giant roll of covered conductor line – power lines covered in a plastic.
A Southern California Edison crew installs new covered conductor power lines in Aguanga, Calif. Elisa Ferrari/Southern California Edison

If a severe windstorm blows a heavy pine branch directly onto an insulated line, it simply rests against the wire without sparking. It is a highly effective middle-ground fix that’s significantly less expensive than burying transmission lines in mountain forests, and it can be deployed rapidly across thousands of miles.

2. ‘Fast-trip’ settings and topology optimization

Another option is to change how the electricity behaves inside the power line using automated technology.

Traditionally, if a tree branch touched a power line, the system would try to push electricity through the line anyway, causing repeated sparking. Today, utilities are deploying “fast-trip” settings on their circuit breakers.

Think of these like the ultra-sensitive circuit breakers in your home. The microsecond a branch bumps an outdoor line, these smart systems detect the disruption and cut the power to that specific wire before a spark can even form. This allows operators to isolate a single high-risk area rather than shutting down power to an entire county.

Topology optimization is another promising operations technique. It acts like Google Maps for the electric grid. Instead of shutting power down when one line is facing high risks, advanced software attempts to safely route electricity around the danger zone using neighboring, lower-risk lines.

By dynamically changing the pathway of the power, utilities can drastically reduce the electrical load and heat on vulnerable lines without cutting power.

Solution 3: AI and real-time smart sensors

Advanced computer software and artificial intelligence are also helping utilities act with surgical precision.

In the past, if a utility feared a windstorm could spark a fire, it had to shut off power to a large region because it lacked localized data. Today, utilities are deploying smart sensors called dynamic line rating that are installed directly onto power lines. These sensors act like digital stethoscopes, measuring real-time wire temperature, wind speed and line sag.

When combined with panoramic, AI-powered camera networks, the grid gains eyes. Xcel Energy in Colorado has deployed 81 of these cameras. Instead of executing a sweeping blackout, operators can use these cameras and automated smart switches to isolate the high-risk span in a windy canyon while keeping the lights safely on for the surrounding town.

The era of risk-aware grid design

The future of Western energy relies on moving away from static, 20th-century safety manuals and toward a practice called risk-aware dispatching.

In simple terms, this means treating the power grid like a living, breathing weather map. On a calm day, electricity is routed along the cheapest path. But when fire conditions spike, AI algorithms will automatically recalculate the region’s electricity flow, diverting power away from fragile forest lines and routing it through safer plains or underground urban corridors.

The era of cheap, unmonitored overhead power lines is over. To adapt to a changing climate, I believe the grid must evolve from a passive network of copper, aluminum and wood into a smart, dynamic machine. By combining insulated wires, targeted undergrounding of power lines, and real-time sensor data, utilities can avoid sparking devastating fires without resorting to frequent blackouts.

Jasmine Garland, Ph.D. Candidate, University of Colorado Boulder

This article is republished from The Conversation under a Creative Commons license. Read the original article.

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We live (very happily) in a rural part of Southern Oregon. Much of the land close to us is covered in trees. Large parts of our property has trees and bushes. We try and keep the area directly around the home clear, but what with me being over 80 and Jeannie with Parkinson’s, it is a challenging task.

We have had far less snow over the Winter than normal. There is no guarantee the coming Winter will provide the (historically) past levels of snow. We will have to wait and see.

Far, far away (in stellar terms).

Deep space is beyond anything we have ever known.

Like many other people, I am fascinated by the dark, clear, night sky. It appears to go on forever.

But this ‘foreverness’ is just our galaxy.

As is said in the following article: “…. if Earth were the size of a pea, the distance to Proxima Centauri would roughly equal the distance between New York and Sydney, Australia.”

The article shows how distant we are, how small we are, how irrelevant we are, in the vastness of the universe.

This article is republished courtesy of The Conversation.

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Could aliens ever visit Earth? An aerospace scientist unpacks the challenges of interstellar spaceflight

The universe is vast and teeming with stars – but if intelligent life exists, it may not be able to visit Earth. NASA, ESA, CSA, STScI, Rohan Naidu (MIT); Image Processing: Joseph DePasquale (STScI), CC BY

Kai James, Georgia Institute of Technology

On May 22, 2026, the Pentagon released a second batch of previously classified photos and videos showing what appear to be unexplained flying objects. These file dumps were the culmination of a process that was set in motion back in July 2023, when a group of government whistleblowers testified before Congress that the U.S. government was secretly in possession of extraterrestrial spacecraft and suspected alien body parts.

That congressional hearing marked the beginning of a cultural shift in which UFO reports are increasingly treated as a matter for serious discussion, both within the government and the scientific community.

A grainy photo of a dark, blurry object in the sky.
The Pentagon released over 200 previously classified UFO files in May 2026. Department of Defense

But is this newfound legitimacy deserved? As an aerospace scientist who studies aircraft and spacecraft design, I approach this question using math, physics and the principles of engineering. To assess the plausibility of alien visitors, it’s necessary to understand the obstacles that an extraterrestrial vessel would need to overcome to reach Earth.

The tyranny of distance

There is no evidence of intelligent alien life in our solar system. So any extraterrestrial visitors would likely have to come from another star system within our Milky Way galaxy.

Proxima Centauri, the star closest to our Sun, is located 4.25 light-years (about 25 trillion miles or 40 trillion kilometers) away.

For perspective, if Earth were the size of a pea, the distance to Proxima Centauri would roughly equal the distance between New York and Sydney, Australia.

Even the stars closest to Earth are incredibly far away.

Since only a fraction of stars are thought to host intelligent life, the nearest alien civilization – if one exists – is surely much farther away than Proxima.

A need for speed

Given the scale of interstellar distances, it’s inevitable that any alien voyage to Earth would span many years and possibly several centuries. But as the time spent in transit increases, so does the risk of catastrophic accidents or system malfunctions that could jeopardize the mission. So it’s important to avoid an overly lengthy journey by traveling as fast as possible.

No object can reach or exceed the speed of light (roughly 186,000 miles or 300,000 kilometers per second). But well before approaching that threshold, engineering constraints begin to assert themselves. Limited fuel availability and the potential for structural damage will restrict the spacecraft’s peak velocity.

There is no universally accepted upper limit on interstellar flight speeds, but studies tend to converge around 19,000 miles per second (30,000 km/s) – 10% of the speed of light – as a realistic cruise velocity. At this speed, a journey of 10 light-years will take approximately 100 years to complete.

Fueling the dream

Finding a way to accelerate the ship to its target cruise speed is the central challenge facing any would-be alien explorers.

Interstellar space is unforgivingly vast, but the emptiness has some advantages. The lack of atmosphere means there is no aerodynamic drag. So when the ship reaches its cruise speed, it can shut down its propulsion system and coast toward the final destination. Unfortunately, the lack of atmosphere also means there is nothing to slow the ship down prior to arrival. So ideally, the propulsion system would be used for both acceleration at the start of the trip and deceleration at the end.

One of the more exotic propulsion strategies employs high-powered laser beams to push the ship through space. The beam is projected from a stationary array near the travelers’ home planet and directed toward a thin reflective sail attached to the ship. The beam’s photons exert radiation pressure on the sail, propelling the ship forward.

This approach has a major advantage in that it requires no onboard fuel. But the amount of energy and infrastructure needed to operate the laser would be staggering. Also, beamed propulsion provides no mechanism for deceleration. At best, this method could be deployed as part of a hybrid strategy that uses a separate system for deceleration.

A more practical approach is to use rocket propulsion. Rockets generate propulsive force, also known as thrust, by expelling high-velocity exhaust in a rearward stream. By reversing the direction of the exhaust, rockets can also be used to slow the ship down.

Their main disadvantage is that rockets must carry their own fuel in addition to carrying the passengers, the habitat and other life-sustaining systems. The extra load necessitates even more fuel. In other words, you need fuel to transport your fuel. The result is a costly snowball effect that can cause the total fuel requirement to balloon to absurd proportions.

Rocket propulsion can be divided into three broad categories.

Chemical propulsion uses chemical reactions – typically combustion – to extract energy from the bonds between atoms. All human space missions thus far have used chemical propulsion. The problem with this method is that it accesses only a tiny fraction of the energy contained within the fuel.

Consequently, using chemical propulsion on a spacecraft with a cruise velocity of 19,000 miles per second (30,000 km/s) would require more fuel than all the mass in the observable universe.

Antimatter propulsion is theoretically the most efficient option. When antimatter comes into contact with ordinary matter, the two undergo mutual annihilation and 100% of their combined mass is converted into energy. This makes it possible to achieve the same cruise velocity – one-tenth the speed of light – with fuel accounting for less than a quarter of the ship’s total mass. This is science fiction-level fuel efficiency, which makes antimatter an attractive option for interstellar propulsion.

The downside is that antimatter is extremely unstable and difficult to make. To date, particle physicists have produced less than 20 billionths of a gram of antimatter. Moreover, these particles had lifespans lasting only fractions of a second and a price tag in the hundreds of millions of dollars.

Nuclear fusion offers a more viable alternative to antimatter. This approach harvests energy stored inside the nucleus of an atom using the same process that powers the Sun. With current technology, fusion engines remain aspirational, but they could, in theory, produce 10 million times more energy per kilogram than chemical rockets.

An illustration of a cylindrical spacecraft orbiting Earth
NASA has been working to develop nuclear propulsion. This artist’s impression shows what a nuclear-powered rocket could look like. John Frassanito & Associates/Wikipedia

Still, a fusion-powered ship with a cruise velocity of 19,000 miles per second (30,000 km/s) would require fuel equivalent to 150 times the mass of the ship itself.

A delicate balancing act

These numbers assume that our extraterrestrial visitors have figured out how to efficiently convert the energy released by their reactor – whether nuclear fusion or antimatter – into thrust.

Just as importantly, they must be able to create optimized fuel tank structures that are ultra lightweight yet highly secure. Designing the structure of the ship, from the fuel tanks to the hull, would be one of the biggest engineering challenges of the entire mission.

Interstellar space contains a sparse smattering of hydrogen atoms and microscopic grains of cosmic dust. At 19,000 miles per second (30,000 km/s), dust particles would smash into the ship’s hull with the energy of a .22-caliber bullet. The bombardment of hydrogen atoms would produce a violent cascade of radiation that could erode even the most resilient engineering materials.

Surviving the onslaught would require no less than a flying fortress with complex magnetic shielding. This would increase the total mass of the ship, which further drives up the demand for fuel.

This example is just one of the hundreds of delicate design trade-offs that would plague any interstellar vessel. Each individual design requirement acts as a filter, reducing the number of feasible solutions.

Finding a single system that simultaneously satisfies all the requirements is analogous to shopping for a car online. With each new filter you apply – four-wheel drive, black exterior, less than 10,000 miles on the odometer – the number of available options dwindles.

When design requirements are in tension with one another – for example, requiring a structure that is lightweight but also supremely durable – the number of feasible solutions can drop to zero.

No single law of physics prohibits an interstellar voyage to Earth. But the combined effects of hundreds of extreme, often conflicting engineering requirements may render it physically infeasible.

It’s also possible that alien civilizations have discovered novel technologies that outperform anything currently known to humans. But like the examples discussed here, any such technology will inevitably encounter its own engineering hurdles.

The trillion-dollar question

Ultimately, engineering challenges are just some of the many barriers to interstellar travel. Any prospective alien visitors must also have sufficient cognitive ability, technological maturity, physical resources, collective desire and proximity to Earth.

That said, if the stars were to align and an alien vessel made it to Earth intact, it would trigger a torrent of burning questions: Where are they from? What do they want? What are they made of?

But the question that would go furthest in shedding light on the deeper mysteries of the universe is, “How on Earth did they get here?”

Kai James, Professor of Aerospace Engineering, Georgia Institute of Technology

This article is republished from The Conversation under a Creative Commons license. Read the original article.

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Kai James poses the unanswerable questions in the last two paragraphs. And how about this statement: “Consequently, using chemical propulsion on a spacecraft with a cruise velocity of 19,000 miles per second (30,000 km/s) would require more fuel that all the mass in the observable universe.

The Emperor’s New Mind

I have finished this fabulous book.

The Emperor’s New Mind: Concerning Computers, Minds and The Laws of Physics

Book by Roger Penrose

Here is a summary of the book that is first, a very deep read, and, second, full of detailed mathematics that were beyond me. I just skipped those parts. However, it is an incredible book and one that has extended my knowledge in so many ways. I think that it isn’t going too far to say that it has amended my knowledge tremendously and I am so glad to have read it, even at the age of 81.

If you wish, you may refer to my thoughts when I first obtained the book, written down on April 14th.

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The Emperor’s New Mind (1989) by Roger Penrose argues that human consciousness involves non-computable processes, meaning a computer can never fully replicate the human mind, even if it can simulate its functions. Penrose uses Gödel’s incompleteness theorems and quantum mechanics to support his view, suggesting that consciousness arises from physical processes in the brain that are not algorithmic, and that a deeper understanding of physics, possibly involving quantum gravity, is needed to explain the mind. The book explores the “mind-body problem” and challenges the idea that all thinking is computation, proposing that human understanding can grasp truths that formal systems cannot. 

Key arguments and concepts

  • Gödel’s Incompleteness Theorems: Penrose argues that human mathematicians can see the truth of certain mathematical statements that a formal system (like a computer program) cannot prove, demonstrating a non-computable aspect of human thought. 
  • Non-computability: He posits that certain mental activities, like mathematical insight, are inherently non-algorithmic and cannot be simulated by a computer, even a powerful one. 
  • Quantum mechanics and consciousness: Penrose suggests that consciousness is linked to quantum mechanical processes in the brain, specifically involving microtubules, a theory he later developed further in Shadows of the Mind. 
  • Critique of Strong AI: The book challenges the “strong AI” hypothesis that a sufficiently complex computer can achieve genuine consciousness, arguing that it misunderstands the nature of human understanding. 

Reception and legacy

  • The book won the 1990 Science Book Prize. 
  • It sparked debate and collaboration, notably with Stuart Hameroff, leading to the “orchestrated objective reduction” (Orch OR) theory of consciousness. 
  • It remains a significant work in the philosophy of mind, artificial intelligence, and the physics of consciousness, influencing discussions on the limits of computation and the nature of the mind. 

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Penrose won the Science Book Prize in 1990 for The Emperor’s New Mind.

I am not surprised.

The unacceptable side of technology

The right to repair one’s own technology products is under attack.

I hadn’t really thought of this before now. I am speaking of an article last Friday that was published by The Conversation.

A large part of me is very open to the ways that technology is helping me. I presume that I am far from being alone.

Here is that article that questions the way things are.

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Today’s bans on DIY repairs of everything from cell phones to tractors grew out of Hollywood’s fear of videotaping

Betamax video recorders like this one helped set off a chain of events leading to bans on repairing your own devices. Steve Jurvetson/Wikimedia Commons, CC BY

Oana Godeanu-Kenworthy, Miami University

If you have ever tried to repair something, realized that it was beyond your financial or technical means, and ended up buying a new one, you are not alone. Repairing electronics and household appliances has not been a real option in the United States for decades now, particularly for items that have proprietary software in them.

Absurd situations have proliferated. It can cost about the same to buy a new printer as it does to replace the ink cartridge. The U.S. Department of Defense cannot repair the weapons systems it purchases because the intellectual property rights remain with the manufacturer. John Deere, the farming equipment company, doesn’t allow farmers to access the software needed to repair their own combines and tractors because, while the purchase covers the physical machinery, it does not cover the software.

One consequence, in addition to cost and frustration for consumers, is environmental harm. The U.S. is the world’s second producer of electronic waste after China, to the tune of about 43 lbs (19.5 kg) of electronic waste annually per person. Only 25% of this e-waste is recycled.

The right-to-repair movement emerged in response, calling for people to be able to repair what they purchase, or have third parties do the repair work, without unnecessary financial, legal or technical barriers. Right to repair seems to be a rare area of bipartisanship in Congress. The Warrior Right to Repair Act – introduced in 2025 by a Democrat – and the Repair Act – introduced by a Republican – are two ongoing legislative initiatives to create a federal legal framework that would make it easy and cheap for American users to repair their devices. Both bills are fiercely opposed by industry groups.

As a scholar of American culture, I found through my research that the origins of the legal and technical obstacles to product repairs lie in debates in the 1980s over new media and copyright guardrails.

Hollywood and VCRs

The rapid rise and popularity of video cassette recorders, or VCRs, in the late 1970s transformed films and TV shows from transient experiences into tangible consumer goods. As I show in my book, “Videotape,” despite the potential for extra revenue, Hollywood was alarmed by the fact that users were now able to copy films on videotape, and tried to stop the technology. Today’s repair bans are part of that story.

The first U.S. copyright provisions were embedded in the 1790 Constitution. Over time, the law was amended to include new technologies, but at the core of future legal arrangements remained the initial intent: to protect the financial rights of creators while giving enough access to information for society as a whole to progress.

Until the second half of the 20th century, the American doctrine of fair use, which allows the unlicensed use of protected works under specific conditions, allowed judges to prevent copyright law from negatively affecting public interest. Organizations such as public libraries, book clubs, universities and news organizations benefited from this legal approach. The concept was codified into American law in the Copyright Act of 1976.

When the film studios took Sony to court to stop the production and sale of video recorders in 1976, they argued that Sony’s product encouraged copyright infringement. But the U.S. Supreme Court ruled in 1984 that taping TV content for personal use did not violate copyright law, expanding the understanding of fair use.

The industry then focused on finding a technological solution to the piracy problem and on securing stricter legal protections for its products.

They identified the digital versatile disc, or DVD, as a safer alternative to the VHS tape. Initially, the DVD was a read-only format. It took a few more years of engineering before affordable recording was possible. Even then, the process was far more complicated for users than videotape recording. In 1997, barely one year after the video disc was launched, all of the Motion Picture Association of America member studios joined the DVD Forum, collectively adopted the new format and started to phase out films released on videotape. https://www.youtube.com/embed/46RDkiy5h3U?wmode=transparent&start=0 Manufacturers use several tactics to block consumers and third-party repair shops from fixing their products.

Copyright and virtual locks

Then came digital rights management. Collectively, the term refers to the battery of technological tools that the industry developed in order to control user access to content. These include encryption software and various forms of authentication or enforcement software that limit which types of digital activities users can perform. For instance, some mechanisms block the option to download or share a digital file.

The Digital Millennium Copyright Act, or DMCA, signed into law by President Bill Clinton in 1998, provided the broad legal framework that allowed these technological locks to expand far beyond entertainment, including to software. The Digital Millennium Copyright Act reflected a new alignment in interests between the entertainment and software industries. It increased existing penalties for copyright infringement online and criminalized any technology used to bypass technological locks. The law was adopted although at the time – and since then – critics warned that it could stifle innovation and increase costs for consumers.

Since 1998, more and more consumer products, from toys to dishwashers, use microchips and proprietary software protected by copyright. Because of the Digital Millennium Copyright Act, third party repairers cannot alter or bypass the proprietary software. If they did so, they would be liable for infringing the manufacturer’s intellectual property rights, as is the case for John Deere farm equipment. Some electronics are even designed to make tampering with the product impossible.

Manufacturers maintain that only they or authorized personnel can and should repair their products. These repairs are often quite costly. When getting a product repaired becomes almost as expensive as buying a new one, many consumers will choose to buy and throw repairable items away.

Rising resentment over repair bans

Technology tends to outpace existing legal arrangements. With over 80% of Americans supporting the right to repair, it remains to be seen when or if American law will catch up with the unexpected consequences of a law meant to protect the intellectual rights of the creative industries, but which is now hurting consumers’ pocket books.

Oana Godeanu-Kenworthy, Teaching Professor of American Studies, Miami University

This article is republished from The Conversation under a Creative Commons license. Read the original article.

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The end of that article points out that more than 80% of Americans support the right to repair and, I guess, that support extends far beyond the USA.

Indeed, a quick online search found that in the UK an organisation, Restart, had a website on the subject. Here is a little of what they said;

The last few years have been really exciting for the Right to Repair in many countries outside the UK. Around the world we’ve seen people get access to more repairable and longer lasting products, cheaper repair options and better information about product repairability. As a result, repair is helping tackle climate change, reduce waste, lower living costs, support communities and create green skilled jobs in more places than ever.

Then another search found out that the Eurpoean Commission had a Right to repair law in place. It was introduced in 2024. Here’s how it starts:

“The new rules reinforce the right to repair, aim to reduce waste and bolster the repair sector by making it easier and more cost-effective to repair goods.

So, hopefully, Oana, the teaching professor at Miami University, can establish a new law that will give American consumers the right to replair their technology belongings.

An Internet Passport

This is a brilliant idea.

A Passport is a very important document. I have both a British and an American passport.

For most of my life there has been no World Wide Web (WWW). And being the age I am I do not pretend to know all the lastest advances in the WWW field. But my grandson is an avid user and, presumably, so are millions of other teenagers across the world.

Thus the idea of an Internet Passport is smart, extremely useful, and brilliant.

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The INTERNET PASSPORT Will Advance Civilization, Promote Democracy, Reduce Censorship, Save The Children And Fight Crime. What is There Not To Like?

Question: How could an internet passport, where the identity of an individual would be displayed, not improve security, safety of children, advance civilization, and even promote democracy if associated with completely constitutionally protected free speech?

The INTERNET PASSPORT would enable to control the age and granular exposure of children to the INTERNET. Presumably, the more than doubling of the suicide rate of girls is related directly to WRONGFUL INTERNET EXPOSURE. Not acting on the Internet Passport would be tantamount to complicity in the abuse and deaths of millions of girls.

If one enters a country, one is required by the authorities to produce a document called a PASSPORT informing them of our identity. Otherwise NO entry. The controls are stiffer if a child is involved, as they should: child trafficking is as old as humanity (and was outlawed by the European Queen Bathilde in 657 CE). So why not the same sort of control of who is entering, when entering the Internet?

A huge problem with the Internet has been too much access by children and access to age inappropriate content. Another bad problem has been the usage of the Internet by Organized Crime.

A simple way to prevent ILLEGAL INTERNET USAGE is to deliver INTERNET PASSPORTSA law passed worldwide  would be impossible to access the Internet without an INTERNET PASSPORT  The passports would have a degree of security and control comparable to that of a passport to pass physical ports. I am sure China would have to approve.

Organized Crime, which profits from adopting the latest Internet tech faster than anybody else, will protest (and some politicians on its payroll will listen). It may be objected by individuals who claim to be good citizens, that the instauration of an INTERNET PASSPORT would introduce a worldwide police state. On a personal basis, I am very much against police states… If the policing goes beyond the law enforcement necessary and sufficient to make sure the constitutional laws are respected. But only then. I firmly believe that a substantial population is kept in check only through the knowledge of potentially efficient police action (I have been a victim of serious crimes more than a few times).

To make sure that the INTERNET PASSPORT does not bring a non constitutional dictatorship, PARRHEISIA and ISEGORIA which should be META CONSTITUTIONAL PRINCIPLES ought to be enforced by arsenals of laws

Parrheisa and Isegoria basically ensure FREEDOM and EQUALITY of speech, not just by allowing them, and making them constitutional, but by making them CIVIC DUTIES.. Thus constitutional speech and expression and their dissemination would be protected…. Which is certainly NOT the case now.

The usual objections will be raised by the same ones who object to cameras: intrusion on private lives. But that is silly. My main outlet is wilderness exploration. If drones would follow me everywhere, I would feel safer. They can spy on me all day long, but I do nothing wrong, aside from calculated risk[1].

The argument, made for years by many of the world’s wealthiest individuals, like Meta’s Zuckenberg, has been a nebulous “People’s right to privacy”. There is no such a thing because the “Right to Privacy” gets ABROGATED BY THE RIGHT TO SURVIVAL (I learned the abrogation idea in my studies of Islamic law, ironically enough…) As the singularity technology evolves, so does the power of individuals: somebody evil could sneak in with, say, Ebola in a jar… But no doubt planning Mass Destruction would involve Internet usage and could be recognized by LAW ENFORCEMENT AI… As long as distinct sources can be identified.

***

Naturally this simple treatment of an Internet malady has not been suggested. Instead fake news media has insisted on applying censorship on sites they consider “violent”. But of course one of the main ways dictatorships achieve control is through censorship of (what they consider to be) “violence” (the coverup is that only the dictator can use violence to suppress what the dictator calls violence)..

Much of the “culture” that young people are exposed to today is violent and extremely divisive, instead of being informational and collaborative. Why? Well, the established plutocracy has always tried, for keeping in control, to divide (and conquer). The controlling plutocracy has always greater means to adopt the latest tech, as when Hitler adopted air travel and radio to get elected. So naturally, the plutocracy we enjoy adopted Internet control and directing it towards the children was particularly perverse.

Patrice Ayme 

[1] One of my fears is an accident which would leave me crippled and rescue would not arrive in time (I have occasionally been in absolutely gigantic landscapes with no one or no sign of human activity in sight; once in Nevada, a billionaire crashed his plane. Neither he nor the plane were ever found… It’s called Nevada for a good reason… Last year I broke an arm in the mountain consecutive to rock failure and subsequent fall; I took the decision to go down the mountain, waiting for rescue would have meant death from exposure. Being able to tell a drone to fetch rescue, or more precisely blankets and shelter would have been safer. Helis couldn’t fly.)  

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[2] In 2026 CNN and other plutocratic serving media oligopolies pressured the UK government to shut down entire websites because those sites showed violence. Showing violence somehow causes violence according to CNN (does this theory make CNN into a terrorist organization?). Instead one should behave as if all was for the best in the best of all possible words. 

Paradoxically, the Internet Passport will force much greater democracy, because it could not be an improvement without Isegoria and Parrhesia. Those two are needed because the US First Amendment protects only aspects of free speech addressed to the government (and the situation is even worse in all other countries)…

Patrice Ayme

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Whether or not, governments across the world will implement these changes, this response to the online world we now live in, is terribly uncertain.

I regret that i am not holding my breath.

An eclipse seen from space

This is beautiful.

I have always been interested in the space flights of the astronaughts. I am sure that I join millions of others who feel the same.

So this article by Deana L. Weibel, Professor of Anthropology at Grand Valley State University is terrific.

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Seeing an eclipse from Earth is awe‑inspiring – for astronauts seeing one from space, the scene was even more grand

During a total solar eclipse, the Sun is barely visible behind the Moon. Roger Sorensen

Deana L. Weibel, Grand Valley State University

The astronauts on Artemis II’s trip to the Moon in April 2026 didn’t just have an amazing journey through space. They also saw something extraordinary. They were the first humans to see a total solar eclipse from space.

A solar eclipse happens when the Moon moves in front of the Sun. In a total eclipse, the Sun’s central disc is covered completely.

From Earth, the circle of the Sun is about the same size as the circle of the Moon. With the bright circle blocked, you can see the undulating rays of the Sun’s corona, or outer atmosphere, that are normally too dim to be observed.

Moon covering most, then all, then most of the Sun
Composite image of moments before, during and after totality. NASA/Aubrey Gemignani

I’m a cultural anthropologist who studies awe-inspiring aspects of space exploration. I have been lucky enough to have seen two total solar eclipses. The first one was in Nebraska in 2017, the second in Indiana in 2024.

During my second total eclipse, the period of totality – that short span when you can remove your protective glasses and look directly at the eclipse – lasted close to 4 minutes. I saw waves of diffuse light snaking around an ink-black hole in the sky. It looked very wrong – almost alien.

On Aug. 12, 2026, there will be another total solar eclipse, visible only from Greenland, Iceland, Spain and the Balearic Islands of the Mediterranean. Some fortunate viewers in Spain and nearby islands may see the eclipse just before sunset, low on the horizon. The Moon illusion, a phenomenon where the Moon looks bigger when it’s near the horizon, might make this eclipse look unusually large.

Unusual eclipse perspectives

Astronauts will occasionally also have less common eclipse experiences. I interviewed one I call by the pseudonym “Jackie” in my research about astronauts’ experiences of awe. She was part of an astronaut training group that did a flight exercise during a total solar eclipse.

Jackie and her squad flew their jets in the shadow of the Moon. This lengthened their time in totality because they could follow and stay within the shadow. Jackie was most impressed with how the Sun’s corona seemed to shift and ripple.

“It’s not static … it’s alive,” she told me.

On April 6, 2026, the astronauts of NASA’s Artemis II mission saw another kind of unusual eclipse as they flew around the Moon. At one point during their flight, the Moon and the spacecraft aligned so that the Moon was directly between them and the Sun, blocking the Sun’s disk in a way that looks very different from what we see on Earth.

Astronaut Victor Glover said it felt like they “just went sci-fi.” https://www.youtube.com/embed/YLjPci5bo1k?wmode=transparent&start=0 ‘An impressive sight’: The Artemis II crew were the first humans to observe a solar eclipse from near the Moon.

The astronauts were so close to the Moon that the Moon looked bigger than the Sun and hid more of its bright circle. Earth was also in view, and sunlight reflected from the Earth onto the Moon in a phenomenon NASA calls “earthshine.” This dim light is very similar to the moonlight that shines on the Earth at night.

Imagine the Sun hidden behind the Moon, creating a hazy halo around the Moon’s edges. At the same time, faint light reflected from Earth softly illuminates the Moon, revealing mountains and craters in a dim twilight. Now imagine this striking scene lasting 54 minutes.

This sight was, without a doubt, one of the most unusual eclipses ever seen by human eyes.

Although Artemis’ astronauts are trained to think scientifically, this experience propelled them into a state of awe. They talked openly about how their brains were “not processing” what they observed. While NASA kept them busy with a variety of tasks, the sound of emotion and excitement in their voices as they broadcast live from their lunar flyby was unmistakable.

An eclipse visible from space - the Moon is shown shadowed with some sunlight visible behind it, and part of the Orion capsule shown off to the left.
The Moon during a solar eclipse on April 6, 2026, photographed by one of the Orion spacecraft’s cameras during Artemis II. Earth is reflecting sunlight at the left edge of the Moon, called ‘earthshine.’ NASA

The psychology of awe

Researchers have studied the effects of awe on the human brain, including awe felt during solar eclipses. Moments of wonder like these can transform how you feel and even how you think, making you more thoughtful and open-minded.

In my own work I’ve found these experiences can change how astronauts understand their own place in the universe.

One astronaut said she gained an awareness of the fragility of our planet that now shapes everything she does, while another described becoming more curious after returning to Earth. A third said the awe he experienced in lunar orbit changed his understanding of time and infinity.

Space travel creates many opportunities for awe, but a solar eclipse from behind the Moon, as Mission Commander Reid Wiseman put it, required “20 new superlatives.”

It’s an experience most of the earthbound eclipse-chasers heading to Greenland or Iceland or Spain this summer will only dream about. Whether eclipses happen in space or on Earth, though, close encounters with the grandeur of our universe can make you feel profoundly human.

Deana L. Weibel, Professor of Anthropology, Grand Valley State University

This article is republished from The Conversation under a Creative Commons license. Read the original article.

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In this difficuly world at present, this is a perfect article. As was written, “…. the awe he experienced in lunar orbit changed his understanding of time and infinity.

Picture Parade Five Hundred and Twenty-One

More NASA images.

And what images.

NASA celebrates Hubble’s 36th anniversary with a new image of the Trifid Nebula, a star-forming region it first captured in 1997. The telescope leveraged almost its full operational lifetime to show us changes in the nebula on human time scales with an improved camera.
NASA, ESA, STScI; Image Processing: Joseph DePasquale (STScI)

There is more information on the NASA website.

Now a YouTube video.

What terrific images from Hubble.