Spotify has enhanced its AI DJ feature, allowing Premium subscribers to personalize their listening experience using English voice commands. Previously, the AI DJ generated playlists based solely on users’ listening habits, with limited control over what played next. Now, users can press and hold the ‘DJ’ button in the app, wait for a beep, and speak commands such as requesting specific genres, artists, moods, or even imaginative prompts like “play me some music to soundtrack my life as a movie.”

This update brings more direct control and integrates quirky, vibe-based recommendations similar to those found in Spotify’s AI Playlist beta feature. However, voice commands remain the only way to guide the AI DJ’s selections, which may be inconvenient in quieter or public settings.

The AI DJ feature, introduced in February 2023, uses a synthesized voice to provide a personalized radio listening experience. The voice is modeled after Spotify’s Head of Cultural Partnerships, Xavier “X” Jernigan. Spotify has also launched a Spanish-language version of the AI DJ, expanding its accessibility to a broader audience.

To use the new voice command feature, users can:

• Open the Spotify app and search for “DJ.”
  
• Tap play to launch the AI DJ.
  
• Press and hold the DJ button (bottom right) until a beep.
  
• Speak your request, like: [“Play me chill tracks for a rainy afternoon.”], [“Give me some K-pop with choreography vibes.”], [“Surprise me with indie songs I’ve never heard.”].

If you’re not sure what you want, just tap the DJ button to skip to the next vibe.

This feature is now available in over 60 markets worldwide, offering users a more interactive and personalized music experience.

Imagine sending a message that doesn’t travel through wires or bounce off satellites but instead appears instantly at its destination—no physical journey, just a seamless transfer of information. This isn’t science fiction; it’s the essence of quantum teleportation. And scientists at Northwestern University achieved a significant milestone by demonstrating quantum teleportation over existing fiber optic cables already carrying internet traffic.

Quantum teleportation doesn’t involve moving objects instantaneously from one place to another. Instead, it refers to the transfer of quantum information—the state of a quantum particle—from one location to another without traversing the space in between. This process relies on a phenomenon called quantum entanglement, where two particles become linked, and the state of one instantly influences the state of the other, regardless of the distance separating them.

In the recent experiment, researchers successfully teleported quantum information over 30 kilometers (approximately 18.6 miles) of standard fiber optic cable that was simultaneously transmitting conventional internet data at 400 gigabits per second . This achievement marks the first time quantum teleportation has been demonstrated over existing internet infrastructure without the need for specialized, dedicated channels.

Transmitting quantum information over busy internet cables presents significant challenges. Quantum states are incredibly delicate and can easily be disrupted by noise from other data transmissions. To overcome this, the Northwestern team utilized a less congested wavelength of light, known as the O-band, for the quantum signal. They also implemented narrow spectro-temporal filtering and multi-photon coincidence detection to protect the quantum fidelity from noise, ensuring the quantum information remained intact during transmission.

This approach allowed quantum and classical communications to coexist on the same fiber optic cable, demonstrating the feasibility of integrating quantum communication into our current internet infrastructure.

The successful demonstration of quantum teleportation over existing internet cables is a significant step toward the development of a quantum internet. Such a network would enable ultra-secure communication, as any attempt to intercept quantum data would immediately alter its state, revealing the presence of an eavesdropper. This has profound implications for fields requiring high levels of security, such as banking, healthcare, and national defense.

Moreover, integrating quantum communication with existing infrastructure could accelerate the deployment of quantum networks, making them more accessible and cost-effective. As quantum computers become more prevalent, the ability to transmit quantum information reliably and securely will be crucial for harnessing their full potential.

While the concept of teleportation often conjures images of science fiction, the reality of quantum teleportation is firmly rooted in scientific research and experimentation. The recent breakthrough by Northwestern University researchers demonstrates that quantum communication can be achieved using the same infrastructure that supports our current internet, bringing us closer to a future where quantum networks are an integral part of our digital landscape.

As we continue to explore the possibilities of quantum technology, each advancement brings us closer to a new era of communication—one where information transfer is instantaneous, secure, and seamlessly integrated into our everyday lives.

Microsoft has announced a new security feature for its Teams platform aimed at preventing unauthorized screen captures during meetings. Set to roll out globally in July 2025, this “Prevent Screen Capture” feature will be available on Teams desktop applications for both Windows and Mac, as well as on mobile applications for iOS and Android.

According to Microsoft’s Microsoft 365 roadmap, the feature is designed to address concerns over unauthorized screen captures during meetings. If a user attempts to take a screenshot, the meeting window will turn black, thereby protecting sensitive information shared during the session.

To further safeguard content, users joining meetings from unsupported platforms will be automatically placed in audio-only mode, ensuring that sensitive visuals are not exposed.

While this feature enhances security, Microsoft acknowledges that it cannot prevent all forms of content capture.

For instance, individuals could still use external devices, like cameras, to photograph the screen. Details regarding whether this feature will be enabled by default or require activation by meeting organizers or administrators have not been disclosed.

This development aligns with broader industry trends focusing on privacy and data protection. For example, Meta recently introduced an “Advanced Chat Privacy” feature in WhatsApp, which blocks attempts to save shared media and export chat content in private and group conversations.

In addition to the screen capture prevention feature, Microsoft plans to roll out other updates in June 2025, including town hall screen privilege management for Teams Rooms on Windows, interactive BizChat/Copilot Studio agents in meetings and one-on-one calls, and a Copilot feature to generate audio overviews of transcribed meetings.

These enhancements reflect Microsoft’s ongoing commitment to improving security and user experience within its collaboration tools.

Microsoft has confirmed that support for Windows 10 will officially end on October 14, 2025. After this date, Windows 10 devices will no longer receive security updates, feature enhancements, or technical support. This move underscores the company’s push for users to transition to Windows 11, especially those with compatible hardware.

The cessation of support means that Windows 10 users will be more vulnerable to security threats and software incompatibilities over time. Microsoft has emphasized the importance of upgrading to maintain system security and access to new features. For users with devices that meet Windows 11’s system requirements, the upgrade is available at no additional cost.

For the estimated 240 million users with PCs that do not meet Windows 11’s hardware requirements, Microsoft offers a few alternatives:

• Extended Security Updates (ESU): Microsoft will provide paid security updates for Windows 10 through its ESU program, allowing users to receive critical patches beyond the October 2025 deadline.
  
• New Device Purchase: Users can opt to purchase new hardware that supports Windows 11 to continue receiving free updates and support.

In addition to the Windows 10 support deadline, Microsoft has announced that Microsoft 365 Apps will no longer be supported on Windows 10 devices after October 14, 2025. This means users will need to upgrade to Windows 11 to continue receiving updates and support for Microsoft 365 applications.

As the October 2025 deadline approaches, Windows 10 users are encouraged to assess their hardware compatibility with Windows 11 and plan accordingly. Upgrading to Windows 11 ensures continued access to security updates, new features, and support for Microsoft 365 applications. For those with incompatible devices, exploring the ESU program or investing in new hardware are viable options to maintain system security and functionality.

Chinese scientists have announced a significant advancement in redox flow battery (RFB) technology, achieving an energy efficiency of 87.9% and a lifespan of 850 cycles. This development addresses longstanding challenges in the performance and durability of RFBs, which are crucial for large-scale energy storage solutions.

The research team focused on enhancing the catalytic electrode by utilizing thin nanosheets augmented with cobalt atoms and sulfur vacancies. This novel material composition improves the electrochemical reactions within the battery, leading to higher efficiency and extended operational life.

Redox flow batteries operate by storing energy in liquid electrolytes contained in external tanks, which are circulated through a cell stack during charging and discharging cycles. Their design allows for scalability and long-duration energy storage, making them suitable for integrating renewable energy sources like solar and wind into the power grid.

This breakthrough positions redox flow batteries as a more viable option for grid-scale energy storage, potentially reducing reliance on traditional lithium-ion batteries and contributing to a more sustainable energy infrastructure.

In a remarkable feat reminiscent of ancient alchemical aspirations, physicists at CERN’s Large Hadron Collider (LHC) have successfully transformed lead into gold—albeit for an imperceptibly brief moment. This achievement, while not economically viable, offers profound insights into the fundamental processes governing nuclear physics.

Between 2015 and 2018, during the LHC’s second operational run, researchers with the ALICE (A Large Ion Collider Experiment) collaboration orchestrated high-energy collisions of lead ions traveling at 99.999993% the speed of light. These near-light-speed interactions occasionally resulted in electromagnetic dissociation—a process where the intense electromagnetic fields of the passing ions caused the ejection of protons from the lead nuclei. Specifically, the removal of three protons from a lead atom (which has 82 protons) transmuted it into a gold atom (which has 79 protons).

Utilizing ALICE’s Zero Degree Calorimeters (ZDCs), the team meticulously measured these rare events. Their analysis revealed that approximately 86 billion gold nuclei were produced during the second run, amounting to a mere 29 picograms (29 trillionths of a gram) of gold. In the subsequent third run, enhancements to the LHC increased the production rate to about 89,000 gold nuclei per second.

Despite the successful transmutation, the synthesized gold atoms were highly unstable. They existed for only fractions of a second before decaying or colliding with the collider’s infrastructure, leading to their disintegration. This fleeting existence underscores the challenges in harnessing such processes for practical applications.

While the notion of turning lead into gold has long been relegated to the realm of myth, this experiment demonstrates the tangible possibilities within nuclear physics. The findings not only validate theoretical models of electromagnetic dissociation but also enhance our understanding of beam loss mechanisms—a critical factor in optimizing the performance of particle accelerators like the LHC.

This groundbreaking experiment at CERN represents a significant milestone in nuclear physics, transforming age-old alchemical dreams into scientific reality, albeit momentarily. While the practical production of gold through such means remains unfeasible, the insights gained pave the way for future research into the fundamental forces that shape our universe.

Nestled in the Jornada del Muerto desert basin of southern New Mexico, Spaceport America is evolving beyond its original vision as the world’s first purpose-built commercial spaceport. Under the leadership of Executive Director Scott McLaughlin, the facility is expanding its scope to accommodate a broader range of aerospace activities and technologies.

Spaceport America is enhancing its infrastructure to support various aerospace endeavors. Plans are underway to construct a new hangar that will serve multiple purposes, including a security center, a STEM education facility, leasable office space, and a small conference area. This development aims to facilitate small vehicle and payload processing, reflecting a significant shift in the spaceport’s operational capabilities.

The spaceport is also embracing new technologies and services. Discussions are in progress to establish a data center on-site, offering low-latency, high-powered computing services to clients requiring artificial intelligence and advanced data processing capabilities.

Economic Impact and Community Engagement

Spaceport America’s activities have a notable economic impact on New Mexico. A study by New Mexico State University’s Center for Border Economic Development reported that the spaceport supports 549 direct jobs and contributes $138 million to the state’s economic output. This includes $60 million in value-added production and $46 million in labor income.

The spaceport also plays a role in tourism. Each spaceflight passenger is estimated to attract approximately 20 visitors to the area, amplifying the economic benefits to local communities.

Strategic Planning for the Future

To guide its long-term development, the New Mexico Spaceport Authority has initiated a comprehensive master planning process. This plan considers various factors, including evolving market trends, national security space requirements, and potential public and private investments. Public input is a critical component of this process, ensuring that the spaceport’s growth aligns with community needs and expectations.

Looking ahead, Spaceport America aims to expand its capabilities to include orbital launches and re-entry operations within the next 10 to 15 years. The vision encompasses creating a comprehensive aerospace ecosystem, referred to as “Space Valley,” extending from Los Alamos to El Paso.