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FBI: Ongoing FortiBleed attacks lock out FortiGate VPN admins

The FBI is warning that FortiBleed attacks are still ongoing, targeting exposed Fortinet FortiGate firewalls and SSL VPN gateways and locking out legitimate administrators.

Hackers gain access to exposed endpoints by using previously leaked credentials, or logins obtained from infostealer logs, credential stuffing, and password spraying attacks.

They then extract additional authentication data from compromised devices and use a distributed GPU cluster running Hashcat and Hashtopolis to crack offline the stolen password hashes.

Hackers hijack Google domains after breaching ccTLD registries

Hackers obtained unauthorized HTTPS certificates for several Google domains and hijacked domains in the country-code top-level domains (ccTLDs) for Ghana, American Samoa, and Sierra Leone after compromising third-party operators and modifying authoritative DNS records.

Google underlines that the attacks affected domains of other organizations in the. GH,.SL, and. AS ccTLDs but “did not involve a compromise of Google’s systems.”

By gaining access to the domain name system (DNS) records, a threat actor can request an HTTPS certificate from a Certificate Authority (CA) for a domain they don’t own.

General-Sep29

The guidelines were published on Sept. 29, but OpenAI chose to announce proofs for the 722 problems anyway.

OpenAI proceeded with the release format the guidelines warned against (a headline drop generated by a closed model), but structured the drop itself to comply with many of the documentation and formalization standards laid out in those guidelines. https://agmai.org//

About the guidelines:

AI laboratories have begun using powerful artificial intelligence models to solve complex mathematical problems. However, this is creating a dilemma: AI systems can produce advanced proofs that humans do not yet understand, cannot easily verify, or cannot take responsibility for.

Historically, mathematics relies on human understanding, peer review, and open collaboration. To protect this foundation, a group from the mathematical community—backed by feedback from over 600 mathematicians—has issued guidelines on how AI labs should responsibly handle and share mathematical discoveries.

Core Principles.

* Prioritize Human Understanding: The ultimate goal of mathematics is human insight. AI discoveries shouldn’t remain black boxes.

* Lab Responsibility: If an AI lab releases a major math discovery that humans don’t yet understand, the lab is responsible for funding and supporting the effort to help human mathematicians understand it.

A quantum state of mitochondria in the living cell

Mitochondria are the power plants of the cell. New research suggests they might also be quantum machines.

Scientists have long wondered how living cells manage to produce energy so efficiently—something that’s hard to explain using only classical physics. Many researchers have suspected that quantum mechanics (the strange physics of tiny particles) might play a role, but proving this in living cells has been difficult because of a lack of direct experimental evidence.

In this study, the researchers combined laboratory experiments on living cells, tissues, and mitochondria (the tiny “power plants” inside cells) with a theoretical model. They discovered a special vibration occurring at a frequency of 71.0 terahertz (THz) that appears *only* in living cells and tissues—not in dead or disrupted ones. This vibration depends on mitochondria having an intact, healthy structure, and it doesn’t come from any single molecule.

To explain this, the team built a quantum model describing how light interacts with matter inside mitochondria. Their calculations suggest that a kind of quantum “superposition” state forms inside working mitochondria, created by the coupling of light with lipid (fat) molecules in the folded inner membranes of the mitochondria. This coupling splits a natural vibration of those lipids (at 87 THz) into two new levels—one at 71 THz and one at 103 THz. The 71 THz signal is the one seen only in living cells, while the 103 THz signal gets lost among other vibrations from biomolecules and water, making it impossible to detect separately.

Further experiments showed that this quantum state acts like an efficient control channel for regulating ATP production—ATP being the molecule cells use as fuel. In short, the findings offer a quantum-level explanation for how living cells work, and raise the intriguing possibility that this quantum state might serve not only as a channel for energy metabolism but perhaps even for transmitting information in living systems.

Bottom libe.

The core experimental findings—the 71 THz signal depending on intact mitochondrial structure, and the frequency-specific ATP response—are interesting and worth pursuing. The quantum interpretation is a model that fits the data, not a proven mechanism. Independent replication, direct measurement of energy transfer dynamics, and testing in more complex biological systems are the necessary next steps before any of the grander implications can be taken seriously.

#quantumbiology #mitochondria #ATP #quantummechanics

Decline of chaperone-mediated autophagy in aging impairs macrophage clearance of senescent cells

This study looks at how the decline in chaperone-mediated autophagy in aging alters senescent cell properties leading to an impairment in their immune clearance. Utilizing proteomic and metabolomic analyses, the authors show that restoring autophagy enhances macrophage function and reduces senescent cell accumulation.

NASA to Cover Northrop Grumman CRS-24 Spacecraft Departure

After delivering more than 11,000 pounds of supplies, science experiments, and other cargo to the International Space Station for NASA, Northrop Grumman’s Cygnus XL spacecraft is scheduled to depart Friday, Oct. 9, as part of the company’s Commercial Resupply Services-24 mission, or Northrop Grumman CRS-24.

Watch NASA’s live coverage of undocking and departure beginning at 12:30 p.m. EDT through a variety of platforms. Learn where to watch online:

https://www.nasa.gov/live

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