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Wanjiru Waweru, Jadetimes Contributor

W. Waweru is a Jadetimes News Reporter Covering Entertainment News

Tyla Revealed the Tracklist of A*POP
Image Source: Rafael Pavarotti

Tyla revealed the 14-song tracklist of her sophomore album, A*POP, which is set to be released on July 24 via Epic Records.


According to The Source, “the two-time GRAMMY-winning global star introduced the tracklist through an immersive visual reveal, with each song title displayed in neon paint against a dark blue backdrop. The cinematic presentation showcased Tyla’s creative vision and continued her signature approach to making each step of her album rollout an event.”


The album includes 14 tracks that feature Is It Love, She Did It Again, and Chanel. See the Full Tracklist.


The Tracklist of A*POP


  1. Is It Love

  2. That Girl

  3. Kiss

  4. Is It

  5. Fairytale (Feat. Liquideep)

  6. Double Blind

  7. Mr. Nonchalant

  8. Feel Something

  9. Right Now

  10. She Did It Again (Feat. Zara Larsson)

  11. Chanel

  12. Crazy of Me (Feat. MaWoo)

  13. I Don’t Care (Feat. Babalwa M)

  14. Hot Tubs


A*Pop will be released on July 24 via Epic Records



yla Revealed the Tracklist of A*POP
Image Source: Epic Records

Wanjiru Waweru is a Jadetimes Contributor. You can email Wanjiru at sellmypaperwork@gmail.com.

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Ravichandran Harini, Jadetimes Staff

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Why Machine Learning Is More Than Memorizing Data

"AI just copies everything from the internet." It is a line heard often, usually delivered with a shrug, as if a language model were a giant photocopier with better manners. The claim is understandable and mostly wrong. It also raises a genuinely interesting question: does artificial intelligence actually learn, or does it simply memorize?


Machine learning, at its core, is a method for finding patterns. A system is shown many examples, spam emails, medical scans, translated sentences, and it adjusts internal parameters until it can recognize the statistical relationships that connect them. It is not storing a copy of every email it has seen. It is learning what spam tends to look like: certain words, structures, and sender patterns that recur across thousands of cases.


That distinction matters because it mirrors, loosely, how people learn. A child does not memorize every dog they have ever seen; they learn the general shape, the bark, the tail, and apply that pattern to a dog they have never met. Machine learning models do something structurally similar with data, generalizing from examples rather than replaying them.


Large language models complicate this picture slightly. They are trained overwhelmingly to capture statistical patterns in language, not to store text verbatim. Yet researchers have repeatedly found exceptions. A 2024 study from ETH Zurich found that a measurable share of outputs from major language models corresponded to exact segments of existing text, and separate work has shown models occasionally reproducing lengthy passages of copyrighted books when prompted in specific ways. These findings matter for privacy and copyright, and they explain why AI companies now invest heavily in data deduplication and filtering before training begins.


The everyday applications, meanwhile, are easy to overlook precisely because they work so well. Spam filters, streaming recommendations, translation apps, fraud detection systems, diagnostic tools that flag anomalies in scans, and the perception systems inside self-driving cars all run on the same underlying idea: learned patterns, not stored answers.


None of this makes machine learning flawless. Models trained on biased data can produce biased outputs. Language models can hallucinate, stating falsehoods with total confidence. Overfitting, memorizing training data too closely, can hurt a model's ability to generalize to new situations. These limitations are exactly why researchers keep refining training methods, evaluation benchmarks, and privacy safeguards, aiming for systems that reason well rather than recall well.


Artificial intelligence is not a copy machine. Its real value lies in spotting patterns humans might miss and using them to make useful predictions. That capability is powerful, but it still requires careful data practices and human oversight to be trustworthy.

Ravichandran Harini, Jadetimes Staff

Why Computer Chips Have Become the World's Most Valuable Resource


Inside a hospital ventilator, a Mars rover, and the phone in your pocket sits the same essential ingredient. A silicon chip smaller than a fingernail, etched with billions of transistors, quietly making modern life possible. These nearly invisible components now sit at the center of geopolitics, national budgets, and corporate fortunes, making semiconductors arguably the world's most strategic resource.


Semiconductors are materials, typically silicon based, that conduct electricity under precise conditions, allowing engineers to build the transistors and circuits that process information. They power everything from artificial intelligence and cloud data centers to electric vehicles, medical scanners, defense radar, and industrial robots. As AI models grow larger and demand more computing power, the chips that train and run them have become as valuable as the software itself.


Recognizing this dependency, governments are pouring money into domestic manufacturing. The United States, Taiwan, South Korea, Japan, China, and the European Union are all racing to reduce reliance on foreign chip supplies, particularly given that a handful of facilities in Taiwan produce most of the world's most advanced chips. TSMC alone reported second quarter 2026 revenue of $40.2 billion, up 33.7% year over year, driven largely by demand for its most advanced process technologies.


Few companies illustrate this concentration better than TSMC, Samsung Electronics, Intel, NVIDIA, and ASML. TSMC and Samsung manufacture the chips designed by companies like NVIDIA and Apple, while ASML holds a near monopoly on the extreme ultraviolet lithography machines needed to etch the smallest circuits. This tight web of dependency means a disruption at any single point can ripple across the entire global economy, as the 2021 chip shortage proved, when automakers alone lost tens of billions of dollars in production due to chip scarcity, alongside delays in consumer electronics and medical device manufacturing.


Building resilience is neither quick nor cheap. A single advanced fabrication plant can cost tens of billions of dollars, and export controls between the United States and China have added further uncertainty to global supply chains. Even so, investment continues at record pace. TSMC recently expanded its Arizona commitment to $165 billion across multiple fabs, backed by CHIPS Act funding, in what officials call the largest foreign direct investment in U.S. history.


The semiconductor race, then, is no longer just about faster chips. It is about economic competitiveness, national security, and who shapes the digital future.

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