Better in their words…

An early cyberattack due to a dangerous security leak, who profited from it, and why all the dire government warnings about household emergency supplies?

Source: The Week the Government Websites Went Dark

DR. ROBERT W. MALONE
OCT 31, 2026

By: Drs. Robert Malone and Jill Glasspool Malone
Washington, DC | October 31, 2026
The Big Picture
Over the past ten days, government websites across Europe and Australia have gone dark, cybersecurity agencies have issued urgent warnings, and governments have been telling citizens to prepare for emergencies by keeping food, water, and cash on hand. Social media has connected these developments into a troubling narrative: Are Western governments preparing for something they aren’t telling us?
We examined the technical reports, government announcements, and timelines behind these stories. What emerges is not evidence of a coordinated warning about an impending catastrophe, but something that deserves serious attention.
A critical software vulnerability known as PHP2Shell threatened millions of websites, including systems used by governments, businesses, and financial institutions. Some government agencies temporarily shut down services rather than risk a cyberattack. More troubling, Amazon detected an attempt to exploit the vulnerability four days before it was publicly disclosed. Researchers have since confirmed that attackers successfully exploited the flaw in at least some vulnerable systems.
Meanwhile, the widely circulated recommendations to maintain three days of emergency supplies largely reflect preparedness policies developed independently, often months or years before the latest cybersecurity emergency. Their timing has fueled speculation, but we found no evidence that these governments were secretly coordinating warnings about a specific impending disaster.
The larger story is about vulnerability, not conspiracy. Modern societies have become extraordinarily dependent on interconnected computer systems, many running software that was never designed to withstand today’s threats. Artificial intelligence is accelerating the discovery of security weaknesses, potentially giving criminals and foreign intelligence agencies powerful new advantages.
The lesson is not to panic. It is to recognize how quickly essential services can become unavailable, how little control ordinary citizens have over the systems they depend upon, and why basic household preparedness and greater self-reliance are increasingly sensible precautions.

When Government Websites Went Dark
On October 21, government websites across Europe and Australia began going offline. In Britain, the Office for Budget Responsibility, the agency responsible for producing official economic and budget forecasts, shut down its website just one week before the government was scheduled to present its budget to Parliament. Dozens of other British government services became unavailable, along with websites in Germany, France, Belgium, Finland, the Netherlands, and Australia. Even Wikipedia and the Internet Archive temporarily suspended parts of their operations.
At roughly the same time, another story was gaining attention. The British government was urging households to maintain three days of emergency food, water, and cash. Australian news outlets were reporting warnings about possible service disruptions. Similar preparedness recommendations from Japan, France, and the European Union began circulating on social media.
The timing raised questions. Why were so many government websites suddenly going dark? Why were governments encouraging citizens to prepare for disruptions? And were these developments connected?
By the end of the week, speculation had spread that Western governments were quietly preparing their populations for a major crisis, possibly as early as November.
With the help of AI, we analyzed worldwide news stories and data and examined government announcements, cybersecurity advisories, and timelines behind these events. 
The available evidence does not establish that governments are preparing for a coordinated November catastrophe. But it does reveal a serious and growing problem: the digital infrastructure supporting essential public services is increasingly vulnerable to cyberattacks, and artificial intelligence is accelerating the threat.
What Broke
Most people experience a website as a page on a screen. Behind that page, a computer called a server receives your request, runs a program, and sends back the result. Many of those programs are written in a computer language called PHP. PHP has been in use since the 1990s. It runs a large share of the internet, including the popular website-building tools WordPress and Drupal, many online shops, and a great many government portals.
PHP works something like a county clerk’s office with a row of counters. Each visitor who arrives is assigned a clerk and a fixed amount of counter space. The clerk processes that visitor’s paperwork and then clears the counter for the next person. The clearing step is supposed to happen every time, including when a visitor’s paperwork turns out to be defective.
In August, researchers found two places where the clearing step fails. In the first case, an attacker sends the website a specially built request disguised as a file upload. The request is designed to overflow the working space PHP has set aside for it. PHP abandons the job halfway through, before any password check has taken place. Some of the half-finished paperwork stays on the counter, and PHP later treats it as valid.
In the second case, the attacker deliberately causes a request to fail in a way that leaves the clerk holding a slip pointing to a folder that has already been thrown away. When the next request arrives at that same counter, the clerk reaches for the discarded folder anyway.
A clever visitor can arrange that leftover paperwork so the clerk ends up following the visitor’s instructions. For a computer, this means the attacker can make the server carry out commands of the attacker’s choosing. Security specialists call this “remote code execution.” Few software flaws are more serious, because the attacker needs no password and no account. A stranger anywhere in the world can do it by sending the right request. The standard rating system scored both flaws at 9.2 out of ten, and they acquired the nickname PHP2Shell.
From Website Shutdowns to Warnings of War
It did not take long for the headlines to become alarming.
The New York Post warned that British families were being told to stock up on emergency supplies and prepare for war. The Independent reported warnings about state-sponsored terrorism, cyberattacks, and food shortages. The Guardian announced that every Briton should stockpile food and water.
These were not obscure conspiracy websites. They were mainstream publications reporting on actual government announcements, but the combination of cybersecurity emergencies, warnings about hostile nations, and household stockpiling created an atmosphere of impending crisis.
Social media took the story further. Reports of government websites shutting down were circulated alongside emergency preparedness announcements from Britain, Europe, Japan, and Australia. Some commentators interpreted the timing as evidence that Western governments knew something the public did not, with speculation about a major international emergency arriving as early as November.
The reality was both less mysterious and, in some respects, more troubling.
There was a genuine cybersecurity emergency. Government websites really had been taken offline, and attackers were exploiting a serious software vulnerability. This is precisely the kind of threat many of us have been warning about: hackers, increasingly aided by artificial intelligence, gaining access to the computer systems that governments, financial institutions, and essential public services depend upon.
The danger is growing as these systems become larger, more interconnected, and increasingly dependent on artificial intelligence to manage operations and make decisions. A vulnerability in one widely used piece of software can potentially expose thousands of organizations simultaneously. As AI systems are given greater authority to act without direct human supervision, the consequences of a security breach could become far more serious, spreading across networks and disrupting services that millions of people depend upon.
The concern is no longer simply that hackers might steal information. It is that they could disrupt, manipulate, or potentially take control of systems essential to modern society.
However, the recommendations to keep three days of emergency supplies largely originated from preparedness programs developed independently of the October cybersecurity incident.
To understand what actually happened, we need to look at the software flaw that triggered the shutdowns.
(Below this line is for paid subscribers only (although the full audio version is free)
How the Warning Leaked, and Who Knew First
When security researchers discover a dangerous software flaw, they normally follow a process called coordinated disclosure. The researchers privately notify the programmers responsible for maintaining the software. Those programmers develop a repair, called a patch, and arrange to release it alongside a public announcement. The idea is to give website operators an opportunity to protect their systems before criminals learn how to exploit the weakness.
This time, that process broke down.
On Tuesday, October 20, identifying numbers for the two PHP2Shell vulnerabilities began circulating on internet forums, accompanied by an incorrect severity rating of 10.0 out of 10 and an inaccurate release date. The official severity rating was subsequently confirmed as 9.2, still considered critical. The premature disclosure prompted PHP’s maintainers to move their scheduled security update forward by one day.
That evening, another breakdown occurred. A company called Calif, one of the cybersecurity firms involved in discovering the vulnerabilities, prematurely published a video demonstrating how its exploit worked against multiple targets. Security researchers commonly produce such demonstrations to document their findings, but these are normally withheld until protective software updates are available.
The PHP Foundation described the publication as a mistake. However, the public accounts do not explain precisely how the video was released or who authorized its publication. Although Calif quickly removed it, copies had already spread online, reportedly helping other researchers develop working attacks.
The incident raises an uncomfortable question: When researchers are dealing with vulnerabilities capable of compromising millions of websites, how secure is the process intended to keep those discoveries confidential until repairs are available?
But something even more troubling had already happened.
On October 17, four days before the official public disclosure, Amazon’s threat intelligence team detected an attempt to exploit PHP2Shell. The activity was captured by Amazon’s MadPot network, a collection of deliberately exposed computer systems designed to detect and record cyberattacks. The attempt originated through a commercial service that concealed the attacker’s actual internet address.
In other words, someone was already attempting to exploit the vulnerability while the information was supposedly being kept confidential.
We also know that knowledge of the impending disclosure had spread beyond the original researchers. Chainguard, a software security company, reported learning on October 16 that a major PHP vulnerability was about to be announced. Its researchers used artificial intelligence to independently identify the flaw that same evening.
This does not implicate Chainguard in the attack Amazon detected the following day. But it demonstrates how quickly information about a software weakness can spread, and how AI tools may allow additional researchers, or potentially attackers, to independently discover vulnerabilities before official repairs are available.
The PHP security patches were released on October 21. By then, the vulnerability was already being targeted. On October 26, the U.S. Cybersecurity and Infrastructure Security Agency (CISA) confirmed active exploitation of the first flaw.
Subsequent investigations revealed that the threat was not merely theoretical. On October 29, researchers at Palo Alto Networks reported confirmed exploitation of PHP2Shell in attacks against vulnerable systems, including an attack that combined the flaw with another weakness to obtain the highest level of administrative control.
What remains unanswered is who attempted the October 17 attack, how they learned about the vulnerability, and whether any government systems were compromised before the patches became available.Amazon could not determine how the early attacker obtained the necessary information, and the public evidence does not establish that artificial intelligence was used in that particular attack.
Governments, meanwhile, faced an immediate decision. Keep vulnerable websites operating and risk a potentially devastating intrusion, or temporarily shut them down until the repairs could be installed and tested.
Cybersecurity agencies in Britain, Europe, Japan, and Australia urged organizations to apply the patches immediately or take vulnerable systems offline. Many government agencies chose the safer option and suspended their services.
That explains why so many government websites suddenly went dark. It does not, by itself, explain the simultaneous publicity surrounding household emergency preparedness, which is a separate story.
How the Warning Leaked, and Who Knew First
When security researchers discover a dangerous software flaw, they normally follow a process called coordinated disclosure. The researchers privately notify the programmers responsible for maintaining the software. Those programmers develop a repair, called a patch, and arrange to release it alongside a public announcement. The idea is to give website operators an opportunity to protect their systems before criminals learn how to exploit the weakness.
This time, that process broke down.
The story began in August, when Calif, a commercial cybersecurity company working in partnership with OpenAI, discovered serious vulnerabilities in PHP. OpenAI had publicly identified Calif as a partner in its Patch the Planetinitiative, which uses artificial intelligence and professional security researchers to identify weaknesses in widely used software.
Calif reported its findings to PHP’s maintainers, who began preparing security updates. Whether Calif was paid for this particular investigation, or what contractual arrangements governed its participation, has not been publicly disclosed in the materials we reviewed.
But before the repairs were ready, information about the vulnerabilities began spreading.
On October 16, Chainguard, another commercial software security company, learned that a major PHP vulnerability was about to be disclosed. Its researchers reportedly used artificial intelligence to independently identify the flaw that same evening.
The following day, October 17, Amazon’s threat intelligence team detected an attempt to exploit PHP2Shell (ergo a cyberattack on their system). The activity was captured by Amazon’s MadPot network, a collection of computer systems deliberately designed to attract and record cyberattacks. The attempt originated through a commercial service that concealed the attacker’s actual internet address.
Someone was attempting to exploit the vulnerability four days before its official public disclosure.
Amazon could not determine how the attacker obtained the necessary information, and there is no evidence connecting the attack to Chainguard or Calif. Nevertheless, the discovery raises an obvious question: How did an unidentified actor know enough about a supposedly confidential software weakness to attempt an attack? This was more than a strange coincidence.
On Tuesday, October 20, identifying numbers for the two vulnerabilities began circulating on internet forums, accompanied by an incorrect severity rating of 10.0 out of 10 and an inaccurate release date. The official rating was subsequently established at 9.2, still considered critical. The premature disclosure prompted PHP’s maintainers to move their scheduled security update forward by one day.
That evening, another breakdown occurred.
A cybersecurity company called Calif prematurely published a video demonstrating how the vulnerabilities could be exploited against multiple targets. Security firms commonly produce such demonstrations to document their discoveries, but these are normally withheld until protective updates become available.
The PHP Foundation characterized the publication as a mistake. However, publicly available accounts do not explain precisely how the video became public, who authorized its release, or what internal safeguards failed. Although the video was quickly removed, copies circulated online, reportedly enabling the rapid development of working exploits that could be used by cybercriminals, hostile foreign intelligence services, or other malicious actors to compromise vulnerable systems.
The same commercial research company that helped discover the vulnerabilities had released information that appeared to have assisted attackers before website operators had received the necessary repairs.
The patches were finally released on October 21. By then, exploitation attempts were accelerating. Cloudflare reported thousands of attempts before the official announcement, followed by millions afterward.
On October 26, the U.S. Cybersecurity and Infrastructure Security Agency (CISA) confirmed that attackers were actively exploiting the first vulnerability.
Three days later, on October 29, Palo Alto Networks reported confirmed exploitation against vulnerable systems, including an attack that combined PHP2Shell with another software weakness to obtain the highest level of administrative control.
These findings established that the threat was not merely theoretical.
Several questions remain unanswered. Who attempted the October 17 attack? How did that individual or organization learn about the vulnerability? Were government systems compromised before the repairs became available? And what safeguards governed the commercial partnerships responsible for handling this highly sensitive information?
There is no public evidence establishing that Calif or Chainguard participated in the early attack, or that artificial intelligence was used by the October 17 attacker. But the episode exposes a serious weakness in the cybersecurity disclosure process.
When multiple commercial organizations possess information about a critical vulnerability, keeping that information confidential becomes increasingly difficult. And when artificial intelligence allows others to independently discover the same weaknesses, the window between discovery and exploitation may shrink dramatically.
The danger extends beyond hackers using artificial intelligence to discover weaknesses in conventional computer systems. AI can help identify hidden vulnerabilities, locate exposed passwords and digital access keys, and uncover pathways into supposedly secure networks. Increasingly, AI systems themselves are being connected to sensitive databases, financial operations, government records, and other automated systems. If attackers compromise one of these AI systems, or manipulate it into revealing confidential information or misusing its authorized access, they may be able to steal data, conduct surveillance, or interfere with other connected systems. 
In effect, AI is becoming both a powerful tool for finding the back doors into our digital infrastructure and another potential doorway through which attackers can enter. As these systems become larger, more interconnected, and more autonomous, a single security failure could have consequences far beyond the original point of intrusion. Entire AI models, including the knowledge encoded within them, could potentially be stolen, along with confidential training datasets, proprietary research, personal information, and sensitive government or corporate records accessible through connected systems. Worse, such theft might go undetected for extended periods, allowing valuable information to be copied without its owners even realizing that their systems had been compromised.
Governments faced an immediate decision. Keep vulnerable websites operating and risk an intrusion, or temporarily shut them down until the repairs could be installed and tested. Cybersecurity agencies urged organizations to apply the patches immediately or take vulnerable systems offline. Many government agencies chose to suspend their services.
That explains why so many government websites suddenly went dark. It does not, by itself, explain the simultaneous publicity surrounding household emergency preparedness, which is a separate story.
What the Governments Actually Said
While headlines warned of war, cyberattacks, and looming shortages, the official government statements told a more complicated story.
In Britain, a government minister informed the House of Lords that 32 government services had been taken offline and another four were partially unavailable. Most were precautionary shutdowns, and officials reported no confirmed intrusions into government systems. Australia experienced similar disruptions, including the temporary shutdown of its national cybersecurity agency’s own website. Australian officials likewise reported no detected breaches of government websites.
But what about the warnings to stockpile food, water, and cash?
Britain: Three Days of Emergency Supplies
On October 22, the British Cabinet Office launched Be Ready, a public preparedness campaign encouraging households to maintain enough essential supplies to manage for at least three days without outside assistance.
The recommendations include three liters of drinking water per person per day, food that requires neither cooking nor refrigeration, a battery-powered or wind-up radio, and some cash in case electronic payments or cash machines become unavailable.
The campaign had reportedly been in development since July, with its launch delayed several times. British officials maintained that it was not prompted by any specific intelligence warning. Prime Minister Andy Burnham described the recommendations as sensible precautions and discouraged panic-buying.
Nevertheless, the timing was striking. Just two days after the campaign launched, Defense Secretary Wes Streeting published a newspaper commentary discussing the need to prepare Britain for the possibility of war. News coverage increasingly linked the government’s household preparedness recommendations with warnings about hostile nations, cyberattacks, and potential infrastructure disruptions.
Although the two announcements addressed different issues, their proximity understandably raised public concern.
Australia: Cybersecurity Warnings, Not Food Rationing
Australia’s situation was somewhat different. Contrary to some social media claims, the Australian government had not issued a new directive telling households to stockpile food.
Instead, several separate stories became intertwined.
The Australian Red Cross encouraged families to prepare for natural disasters, including floods, fires, and storms, while specifically discouraging panic-buying. Separately, an academic at Melbourne’s RMIT University suggested maintaining a month’s supply of food. That was her personal recommendation, not government policy.
The more significant development was the Australian Signals Directorate’s Annual Cyber Threat Report 2025–26, released October 27.
The report identified artificial intelligence as a major factor reshaping the cybersecurity threat environment. AI is making it easier and faster to identify software vulnerabilities, potentially reducing the time available for organizations to defend themselves.
The agency reported responding to 1,524 cybersecurity incidents during the year ending June 2026, compared with 1,253 the previous year, an increase of approximately 22 percent.
Deputy Prime Minister Richard Marles emphasized that organizations must sometimes prioritize security over uninterrupted operations. In practical terms, temporarily shutting down vulnerable systems may be preferable to allowing attackers access to sensitive information or critical infrastructure.
Europe, Japan, and the United States: Preparedness Is Not New
Elsewhere, the advice to maintain emergency supplies predates the October cybersecurity incident.
The European Commission adopted a preparedness strategy in March 2025 encouraging households to maintain at least 72 hours of essential supplies. The strategy addressed a range of threats, including natural disasters, military conflict, cyberattacks, and disruptions to critical infrastructure.
Japan has long recommended keeping several days of emergency supplies because of its exposure to earthquakes, tsunamis, and other natural disasters. Its preparations for a new national disaster management agency also predate the PHP2Shell incident.
In the United States, the Federal Emergency Management Agency (FEMA) has recommended maintaining at least three days of emergency supplies for many years.
These programs developed at different times and in response to different risks. We found no evidence that they were coordinated as part of a secret warning about an impending November catastrophe.
The Pentagon: Preparing Military Bases for Extended Disruptions
A separate American initiative deserves attention.
On September 30, Defense Secretary Pete Hegseth announced FORTRESS, a program intended to improve the ability of major U.S. military installations to operate independently of civilian infrastructure.
The initiative focuses on essential resources, including electricity, water, and fuel. Subsequent reporting indicates that the Pentagon wants certain military installations capable of operating for as long as 90 days without relying on outside infrastructure.
This is not a directive for American households to stockpile three months of supplies. It is a military readiness initiative intended to ensure that essential defense operations can continue during emergencies, infrastructure failures, or hostile attacks.
Nevertheless, the underlying concern is significant. The Department of Defense recognizes that dependence on interconnected civilian infrastructure can become a serious national security vulnerability.
What These Announcements Have in Common
There is no demonstrated connection between the October PHP2Shell incident and the various household preparedness campaigns. Nor is there evidence that governments are secretly coordinating warnings about a specific impending disaster.
But that does not mean the announcements are meaningless.
Across the Western world, governments are increasingly acknowledging that essential infrastructure may not always be available when citizens need it. Whether the threat comes from natural disasters, military conflict, cyberattacks, or failures within interconnected computer networks, the consequences can be similar: interruptions to electricity, communications, banking, transportation, and basic public services.
The important question is not whether governments are secretly warning us about a catastrophe next month. It is why so many governments now consider prolonged disruptions to essential services serious enough to warrant greater public preparedness and institutional self-sufficiency.
That is a question worth asking, regardless of what happened to government websites in October.
The Real Danger: A Society That Cannot Function Without Its Technology
We have argued before that much of Washington’s alarm over artificial intelligence serves the interests of the largest technology companies. These corporations can afford expensive regulatory requirements that smaller competitors cannot, potentially using government regulation to consolidate their dominance. We still hold that view.
But that does not mean the risks associated with artificial intelligence are imaginary. Quite the opposite.
The events of October demonstrate a troubling contradiction. We are building an increasingly centralized, interconnected, and automated society while simultaneously developing technologies capable of discovering and exploiting weaknesses in those systems at unprecedented speed.
Much of the internet still depends on software maintained by relatively small teams of programmers, sometimes working with limited funding or as volunteers. Yet that software supports enormous commercial enterprises, financial institutions, government agencies, and public infrastructure.
When the Companies Protecting Us Become the Threat
There is another uncomfortable dimension to this story. Cybersecurity has become a multibillion-dollar commercial industry, with private companies selling governments, hospitals, banks, and major corporations protection against digital threats. Yet the systems designed to protect us can themselves become sources of enormous disruption.
Consider CrowdStrike.
On July 19, 2024, a faulty software update from the cybersecurity company disabled approximately 8.5 million Windows computers worldwide. Airlines grounded flights, hospitals experienced disruptions, businesses lost access to essential systems, and public services were interrupted. The damage was not caused by foreign hackers or artificial intelligence. It originated with a company paid to protect those systems.
Delta Air Lines alone claimed more than $500 million in losses and pursued legal action against CrowdStrike. Other lawsuits followed, although some claims were dismissed and litigation continued into 2026.
The incident prompted congressional scrutiny, but it also exposed a larger problem. Private cybersecurity companies can become deeply embedded in critical infrastructure, with their software operating across millions of computers, without a comprehensive system of independent oversight proportionate to the potential consequences of their failures.
The October PHP2Shell incident raises a related question. Commercial cybersecurity firms working with some of the world’s largest technology companies discovered dangerous software vulnerabilities, but the coordinated disclosure process broke down. Information that could help attackers exploit those vulnerabilities circulated before protective updates were available.
Calif, a commercial cybersecurity firm participating in OpenAI’s Patch the Planet initiative, prematurely published a video demonstrating how the vulnerabilities could be exploited. The PHP Foundation characterized the release as a mistake. Yet the publicly available accounts do not explain who authorized the publication, what safeguards failed, or whether contractual security obligations were violated.
These are different kinds of incidents, but they reveal a common weakness: Society is placing extraordinary trust in a relatively small number of private technology companies, while the public has limited visibility into their internal security practices, commercial relationships, and accountability when something goes wrong.
There is also a troubling economic question. The cybersecurity industry profits from selling protection against increasingly sophisticated threats. When security failures occur, affected businesses and government agencies may have little choice but to spend even more money on cybersecurity services. This creates a potential conflict of incentives that deserves scrutiny.
The answer is not another sprawling regulatory bureaucracy, particularly one written with the assistance of the same technology companies that would benefit from rules their smaller competitors cannot afford to meet.
What is needed is genuine accountability under existing criminal and civil laws.
When cybersecurity companies entrusted with protecting critical infrastructure cause widespread damage, independent investigations should establish exactly what happened, who made the decisions, what risks were known, and whether information was deliberately concealed. Where evidence suggests fraud, intentional misconduct, unauthorized access, or other criminal violations, the FBI and Department of Justice should investigate, and prosecutors should pursue appropriate charges.
The same scrutiny should apply to commercial cybersecurity partnerships handling dangerous software vulnerabilities. Who authorized the premature release of information that could assist attackers? Were contractual security obligations violated? Did anyone knowingly disregard safeguards or conceal material facts afterward?
And perhaps most importantly, did anyone profit personally or financially from advance knowledge of the vulnerabilities, the timing of their disclosure, or the resulting publicity? Were securities traded, investment positions established, contracts awarded, or commercial relationships expanded in ways that benefited individuals or companies possessing information unavailable to the public?
These questions fall squarely within the concerns that federal securities laws are intended to address when material nonpublic information, deceptive conduct, or improper trading is involved. The Securities and Exchange Commission has specifically recognized the potential for insider trading involving cybersecurity vulnerabilities and breaches. Where credible evidence suggests such activity, SEC investigators, the Department of Justice, and other appropriate authorities should examine the financial records, communications, disclosure timelines, and potential conflicts of interest.
Were the cybersecurity firms financially compensated for their research? Who controlled the release of sensitive information, and who stood to benefit from its publication? These are questions that should not be left exclusively to the companies involved.
These are legitimate investigative questions that should not be left exclusively to the companies involved. At the same time, negligence, contractual violations, and criminal misconduct are distinct legal matters. The available evidence does not establish that CrowdStrike or Calif committed fraud, extortion, or another criminal offense.
The public should not have to accept a system in which private corporations collect billions of dollars to protect essential infrastructure, while the financial and operational consequences of their failures are borne by taxpayers, businesses, and ordinary citizens.
When companies are entrusted with protecting systems essential to millions of people, accountability should not end with an apology, a software patch, and a promise to do better.
And when there is credible evidence of criminal wrongdoing, the response should involve law enforcement and the courts, not merely another congressional hearing or another set of industry-written regulations.
Meanwhile, the largest technology companies are racing to integrate artificial intelligence into nearly every aspect of modern life. AI is no longer simply answering questions or generating text. Increasingly, it is being given access to databases, financial transactions, administrative systems, and operational decisions that once required direct human supervision.
This creates two overlapping vulnerabilities. Criminals and foreign intelligence agencies can use AI to identify weaknesses in computer systems. At the same time, the AI systems being incorporated into those networks can themselves become targets for manipulation, espionage, and unauthorized access.
The consequences could extend far beyond stolen passwords or confidential documents. Entire AI models, proprietary research, sensitive databases, and personal records could potentially be copied without immediate detection. More seriously, attackers who gain control of systems responsible for essential operations could interfere with services upon which millions of people depend.
And the danger is not limited to deliberate cyberattacks.
In August 2003, a combination of poorly maintained power lines, inadequate vegetation management, and a malfunctioning computer alarm system helped trigger a massive blackout across the northeastern United States and parts of Canada. Approximately 50 million people lost electricity, some for as long as four days.
There was no coordinated foreign attack. No sophisticated artificial intelligence was required. A series of technical failures, compounded by inadequate monitoring and human decisions, cascaded through an interconnected electrical grid.
That was more than twenty years ago.
Today, banking, communications, transportation, food distribution, health care, government services, and increasingly the electrical grid itself depend on digital networks. Many of these systems are becoming more automated and more closely connected to one another. The failure or compromise of a critical component can have consequences far beyond the organization where the problem originated.
We are creating a civilization in which technological convenience and efficiency increasingly come at the expense of independence, redundancy, and resilience.
The solution cannot simply be another layer of government regulation written by the same large corporations that stand to benefit from it. Nor can we assume that technology companies will always protect the public interest when commercial incentives favor rapid deployment, expanding market share, and greater centralization.
There must also be meaningful criminal enforcement. When evidence suggests that cybersecurity executives, employees, or contractors deliberately concealed vulnerabilities, manipulated disclosures for financial gain, engaged in insider trading, or knowingly facilitated unauthorized access to critical systems, the matter should not end with an internal investigation or civil settlement. The FBI, Department of Justice, and, where securities violations are suspected, the SEC should investigate and pursue appropriate enforcement action. Corporate status should not shield individuals from personal accountability when their conduct violates the law.
The institutions responsible for critical infrastructure need stronger security, independent oversight, backup systems, and the ability to continue operating when digital networks fail. Equally important, society needs to preserve alternatives that do not depend entirely on centralized technology.
And ordinary households have a role to play.
Keeping emergency food and drinking water, some cash, a battery-powered radio, necessary medications, and basic household supplies is not evidence of paranoia. It is a practical recognition that electricity, communications, electronic payments, and government services may not always be available when we need them.
For those with the means and opportunity, maintaining independent sources of food, water, heat, and electricity provides an additional measure of security. Not everyone can live on a homestead, but nearly everyone can take some steps toward becoming less dependent on systems beyond their control.
The October cybersecurity emergency does not establish that governments are secretly preparing for a November catastrophe. What it does demonstrate is that modern society has become extraordinarily dependent on technologies that can fail, be manipulated, or be deliberately attacked.
The greatest danger may not be artificial intelligence itself, but our willingness to surrender more and more control over essential aspects of our lives to increasingly complex systems that few people understand and even fewer can independently repair.
Preparedness is not panic. Self-reliance is not extremism. And the ability to function when technology fails should not be considered an outdated luxury.
It should be a fundamental measure of a resilient society.

References
Sophos. “Advisory: PHP2Shell Vulnerabilities (CVE-2026-109618, CVE-2026-109619).” October 21, 2026; updated October 28, 2026. https://www.sophos.com/en-us/security-advisories/sophos-sa-20261021-php2shell
Calif Research. “PHP2Shell: A Tale of Two PHP Remote Vulnerabilities.” October 21, 2026. https://calif.io/php2shell/
OpenAI. “Patch the Planet: A Daybreak Initiative to Support Open Source Maintainers.” June 22, 2026. https://openai.com/index/patch-the-planet/
Amazon Web Services. Moses, CJ. “Amazon Threat Intelligence Identifies PHP2Shell Exploitation Prior to Public Disclosure in MadPot.” October 21, 2026. https://aws.amazon.com/blogs/security/amazon-threat-intelligence-identifies-php2shell-exploitation-prior-to-public-disclosure-in-madpot/
Cloudflare. “Cloudflare Deploys Protections Against PHP2Shell Vulnerability.” October 21, 2026; subsequently updated. https://blog.cloudflare.com/php-vulnerabilities-waf-protection/
Palo Alto Networks, Unit 42. “Threat Brief: Critical Vulnerabilities in PHP: CVE-2026-109618, CVE-2026-109619.” Updated October 29, 2026. https://unit42.paloaltonetworks.com/cve-2026-109618-cve-2026-109619/
TechTarget. “PHP2Shell Explained: Timeline of the Global Vulnerability Crisis.” October 2026. https://www.techtarget.com/news/php2shell-explained-timeline-of-the-global-vulnerability-crisis/
Dynatrace. “CVE-2026-109618 & CVE-2026-109619: PHP2Shell Critical Vulnerability.” October 2026. https://www.dynatrace.com/news/blog/cve-2026-109618-cve-2026-109619-php2shell-critical-vulnerability-what-it-is-and-what-to-do/
watchTowr. “PHP2Shell FAQ (CVE-2026-109618 and CVE-2026-109619).” October 2026. https://watchtowr.com/intelligence/php-cve-2026-109618-faq/
Red Hat. “RHSB-2026-013: Request Handling Memory Corruption, PHP2Shell.” Updated October 23, 2026. https://access.redhat.com/security/vulnerabilities/RHSB-2026-013
Netherlands National Cyber Security Centre. “PHP2Shell Vulnerabilities: Operational Information.” October 2026. https://github.com/NCSC-NL/php2shell
The Register. “PHP2Shell Puts Dozens of UK Government Services Out of Service.” October 22, 2026. https://www.theregister.com/security/2026/10/22/php2shell-puts-dozens-of-uk-government-services-out-of-service/5304840
ABC News (Australia). “Australian Government Sites Among Those Exposed to ‘Critical’ PHP Software Flaw.” October 22, 2026. https://www.abc.net.au/news/2026-10-22/php-vulnerabilities-cyber-asd/107294812
SBS News. “PHP Update: Why Are So Many Websites Down and When Will They Return?” October 2026. https://www.sbs.com.au/news/article/php-vulnerability-internet-websites-shutdown-cybersecurity-online-security/sm2gedcoc
Marles, Richard, Deputy Prime Minister of Australia. “Albanese Government Works with Public and Private Sector Organisations to Strengthen Cyber Resilience.” October 26, 2026. https://www.minister.defence.gov.au/media-releases/2026-10-26/albanese-government-works-public-private-sector-organisations-strengthen-cyber-resilience
Australian Signals Directorate. Annual Cyber Threat Report 2025–26. October 2026. https://www.cyber.gov.au/publication/annual-cyber-threat-report-2025-26
Reuters, via ARY News. “UK Tells Public to Keep Three Days’ Emergency Supplies at Home.” October 24, 2026. https://arynews.tv/uk-tells-public-to-keep-three-days-emergency-supplies-at-home
Sky News, via Radio X. “‘Be Ready’ Checklist: The National Resilience Moment That Almost Barely Happened.” October 2026. https://www.radiox.co.uk/news/uk-world/be-ready-checklist-the-national-resilience-mo/
Reuters, via Yahoo News. “EU Tells the Public to Hold 72 Hours of Emergency Supplies.” March 2025. https://www.yahoo.com/news/eu-commission-urges-stockpiling-emergency-112657384.html
IBTimes UK. “Pentagon Prepares for Potential War: US Military Bases Face Reported 90-Day Self-Sufficiency Requirement.” October 2026. https://www.ibtimes.co.uk/pentagon-90-day-self-sufficiency-us-military-bases-1827679
U.S.–Canada Power System Outage Task Force. “Interim Report: Causes of the August 14th Blackout.” November 19, 2003. https://ferc.gov/sites/default/files/2020-08/blackout-presentation.pdf
The Register. “Software Bug Contributed to Blackout.” February 12, 2004. https://www.theregister.com/2004/02/12/software_bug_contributed_to_blackout/


Invite your friends and earn rewards
If you enjoy Malone News, share it with your friends and earn rewards when they subscribe.