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People with synesthesia experience distinct thematic patterns in their dreams

From the article:

The thematic analysis revealed that synesthete dreams systematically differed from control dreams in four distinct categories. People with synesthesia were more likely to describe dreams involving digital life. This theme included references to scrolling, screens, computer accounts, and routine technology use.

Synesthetes also reported more dreams centered on interpersonal regret. This theme featured scenarios involving guilt, moral conflict, missed opportunities, and urgent apologies. The scientists note that this aligns with the heightened emotional reactivity and memory retention frequently observed in people with synesthesia.

The third prevalent theme in synesthete dreams was diverse worlds. This category included shifting environments, cultural settings, and complex or dystopian landscapes. Because synesthetes tend to score high in openness to experience, they may possess a more flexible cognitive style that supports the construction of richly detailed and varied dream settings.

Finally, the violent conflict theme appeared more often in the dreams of synesthetes. This theme involved fictional threats, horror imagery, and words associated with intense physical clashes. The researchers suggest that individuals with enhanced memory abilities, a common trait in synesthesia, might be more likely to incorporate intense waking experiences into their dreams.


Do waking perceptual traits influence our sleep? New research indicates that people with synesthesia have unique dream patterns, providing evidence that our individual brain structures actively shape our imagination long after we fall asleep.

Scientists Believe Quantum Computers AreAbout to Cross a Major Line

We began this inquiry by looking at the mismatch between our computers and our brains. We realized that we were trying to run biological software on the wrong hardware. That era is ending. As we refine these quantum processors, we are finally building a mirror that is accurate enough to reflect the true nature of the mind. We are not just building faster computers. We are building a vessel that can hold the physics of thought.

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Timestamps:
0:00 Quantum Computers.
1:18 The Scale Problem.
4:40 The Thermodynamic Wall.
8:11 Quantum Mechanics in Wetware.
13:58 The \

Microsoft’s glass data storage system saves terabytes for 10,000 years

Imagine being an explorer, cracking open a 10,000-year-old tomb, uncovering a priceless ancient artifact – and getting rickrolled. Our deep descendants might just get the pleasure, thanks to a Global Music Vault due to be built in Norway, featuring Microsoft’s Project Silica, a tough new data storage medium that’s never gonna give you up.

There’s a common saying that once something is on the internet, it’s there forever, and even if you delete it, it will persist in some server somewhere. But that’s demonstrably untrue – just try to find your cringey old MySpace page. Even the most secure data center is vulnerable to the increasingly common and severe environmental disasters brought on by climate change. Many will lose their data if there’s a long-term power outage, or a large-scale electromagnetic pulse from an attack or, worse still, the Sun. Even in the best-case scenario, physical storage media like Blu-Rays, archival tape, hard drives and even solid state drives will degrade in decades.

To ensure that our history lives on for longer, Microsoft has been experimenting with storing data on glass with what it calls Project Silica. In 2019, the company demonstrated the tech in a partnership with Warner Bros by writing the 1978 movie Superman onto a slide of quartz silica glass and reading it back. The slide, measuring just 75 × 75 mm (3 × 3 in) and 2 mm (0.08 in) thick, could hold as much as 75.6 GB, and remained readable even after being scratched, baked, boiled, microwaved, flooded and demagnetized.

Quantum computer breakthrough tracks qubit fluctuations in real time

Researchers at the Niels Bohr Institute have significantly increased how quickly changes in delicate quantum states can be detected inside a qubit. By combining commercially available hardware with new adaptive measurement techniques, the team can now observe rapid shifts in qubit behavior that were previously impossible to see.

Qubits are the fundamental units of quantum computers, which scientists hope will one day outperform today’s most powerful machines. But qubits are extremely sensitive. The materials used to build them often contain tiny defects that scientists still do not fully understand. These microscopic imperfections can shift position hundreds of times per second. As they move, they alter how quickly a qubit loses energy and with it valuable quantum information.

Until recently, standard testing methods took up to a minute to measure qubit performance. That was far too slow to capture these rapid fluctuations. Instead, researchers could only determine an average energy loss rate, masking the true and often unstable behavior of the qubit.

Guest Post: Quantum And Games — The Shift Developers Can’t Afford to Ignore

This is not about a lack of imagination – it’s about the limitations of classical computing and its inability to handle complexity.

The way in which quantum computing can be used to transform game development, and address the limitations imposed by traditional computing, is often misunderstood. People imagine quantum computers running entire games in real time. This is not how it’s used.

Quantum computing won’t power your frame rate or respond to controller input. Instead it exists to solve certain complex problems far more efficiently than conventional machines. The real opportunity is earlier in the process – helping developers explore ideas, pre-render complex systems and check that complex worlds actually work before players ever see them.

Will probiotics work for you? Models map gut metabolism to predict success

A new study demonstrates that computer models of gut metabolism can predict which probiotics will successfully establish themselves in a person’s gut and how different prebiotics affect production of health-promoting short-chain fatty acids. The findings are published in PLOS Biology by Sean Gibbons of the Institute for Systems Biology, US, and colleagues.

Probiotic and prebiotic supplements show highly variable results across individuals, making it difficult to predict who will benefit from these interventions. This variability comes from complex interactions between introduced probiotics, each person’s existing gut microbiota, and their diet.

In the new work, researchers first tested a metabolic model on data from two previous studies in which participants diagnosed with type 2 diabetes were given a placebo or probiotic/prebiotic mixture designed to improve glucose control and healthy participants were given a placebo or a probiotic treatment designed to treat recurrent Clostridioides difficile infections, respectively.

New chip-fabrication method creates ‘twin’ fingerprints for direct authentication

Just like each person has unique fingerprints, every CMOS chip has a distinctive “fingerprint” caused by tiny, random manufacturing variations. Engineers can leverage this unforgeable ID for authentication, to safeguard a device from attackers trying to steal private data.

But these cryptographic schemes typically require secret information about a chip’s fingerprint to be stored on a third-party server. This creates security vulnerabilities and requires additional memory and computation.

To overcome this limitation, MIT engineers developed a manufacturing method that enables secure, fingerprint-based authentication, without the need to store secret information outside the chip.

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