The first fuel loading officially began at the Tianwan nuclear power plant, in Unit No. 7, on August 12. The first fuel assembly was precisely and safely placed into the reactor core, laying the foundation for subsequent reactor criticality and commercial operation.
The initial fuel loading is a key procedure involving the installation of the energy heart into the reactor. This stage marks an important milestone in the complete cycle of nuclear facility construction and represents a comprehensive verification of years of engineering expertise, system commissioning, and safety management.
This is the first fuel loading of this type in China, requiring the installation of 163 fuel assemblies. The process is divided into three stages: transportation of fuel assemblies, their loading into the active zone, and verification of the loading accuracy. A fully automated remote fuel loading control system is used for the work; operators monitor the process from the refueling machine control hall, located 30 meters from the reactor hall, ensuring the positioning of each assembly with millimeter precision, comparable to sewing with a needle.
After the loading is complete, the unit proceeds to nuclear commissioning. Tianwan serves as a model of cooperation between China and Russia and is managed by CNNC. It is also the world's largest nuclear base in terms of total installed and under-construction capacity. Units 1 through 6 are operating successfully, demonstrating safe and stable performance, with cumulative safe electricity generation exceeding 500 billion kilowatt-hours, and many safety indicators ranking among the best among similar installations worldwide.
Units No. 7 and No. 8 were inaugurated via video link by the heads of state of China and Russia, making this project the largest strategic cooperation between the two countries in the field of nuclear energy to date. Each of these units has an installed capacity of 1,265 megawatts, generating nearly 10 billion kilowatt-hours annually, and is designed for a service life of 60 years. Unit No. 8 has completed cold functional testing. According to the construction plan, Units No. 7 and No. 8 are scheduled to enter commercial operation in 2026 and 2027, respectively.
When the entire Tianwan base is fully operational, the total installed capacity will exceed 9 million kilowatts, and the annual clean energy supply will be over 70 billion kilowatt-hours, leading to a reduction in CO2 emissions by 57.4 million tons annually. This expansion strengthens the energy structure of East China, supports regional energy security, and contributes to China's goals of dual carbon footprint. This fuel loading milestone also occurs against the backdrop of a wave of new Chinese reactor projects, including four recently approved projects this month featuring the modernized Hualong One design.
According to information from the Chinese leak Digital Chat Station (DCS), a new iPhone is being prepared that will be entirely made of glass. Production of displays for this device has reportedly already begun, and it is aimed at Apple's first release in 2027, which could take place between May and June.
The anticipated iPhone 20 Pro would be a commemorative model for the 20th anniversary of the company's first mobile phone release. It would feature the so-called 'infinity display' with curved bezels for the first time. Although the official model name has not been confirmed, there are rumors about adopting a different strategy, similar to what was used with the iPhone X in 2017 when the '9' edition was skipped.
According to 9to5Mac, the smartphone is expected to have borders similar to the Apple Watch, creating the impression of an infinite display, but with a more refined design. It should be noted that before this model's release in September of this year, new iPhone 18 Pro and the company's first foldable gadget are expected to be presented, although the latter does not yet have a specific name.
The device, which might be called the iPhone 20 Pro, could potentially be Apple's first model with curved edges and a design made entirely of glass. This could represent a new iPhone concept to celebrate the 20th anniversary of the smartphone released by Steve Jobs in 2007.
Despite these expectations, recent rumors point in a different direction. One analyst stated that the company found implementing these innovations too complex, but journalist Mark Gurman from Bloomberg, known for his accuracy in predictions, asserted that the project was not canceled.
There is also no consensus regarding a possible new name. Some specialized publications speak of a special name, like the iPhone X, while others view this novelty as a simple update to the Pro line, i.e., the iPhone 19 Pro.
Strong rumors from China suggest that the new iPhone with an infinity display is indeed close to realization. According to Digital Chat Station, the component has already entered the brand's smartphone production chain. This information aligns with reports from another leak, Ice Universe, which also saw details in production. According to them, the screen possesses an 'sophisticated combination' of effects such as light refraction and direction, and also creates a visual illusion of continuity. DCS, for its part, mentions four curved edges and light refraction that, together with the design, create an infinity effect, as if there were no bezels.
Although many users are not yet convinced of the benefits of artificial intelligence, it is undeniable how much resources this technology consumes. This specifically refers to random access memory (RAM), or 'unified memory' as Apple prefers, and not long-term storage space.
The simple truth is that local AI tasks require a huge amount of memory, which fundamentally changes the design principles of computers, tablets, and smartphones. AI functions built directly into the device, such as Apple's integrated ChatGPT capabilities, require instant access to the system's computing power.
To ensure fast and smooth responses, these AI models must reside directly in the device's active memory. When the system needs quick access to information, indexing and processing this data require a fast temporary workspace, which is the RAM.
An analogy can be drawn: RAM is like the surface of a physical desk; the bigger the desk, the more documents can be placed simultaneously for work. A hard drive or SSD, on the other hand, acts as a filing cabinet under the desk where most files are stored long-term.
To handle these new, heavier workloads, hardware manufacturers are actively 'securing the future' of their latest models by equipping them with significantly larger amounts of memory. This sudden increase in demand has naturally led to higher prices for these vital components across the entire technology industry.
Consequently, these high RAM prices now increase retail costs for everything from modern smartphones and laptops to media players and consoles for high-performance gaming. At the center of this widespread price increase is local AI—a technology that has not yet fully won over the favor of many ordinary consumers.
During the thirteenth successful test flight of the Starship, the new generation of Starlink V3 satellites, a satellite internet constellation from SpaceX, was experimentally implemented. A notable aspect of these new satellites is their considerable size, exceeding the wingspan of a Boeing 737, placing them among the largest communication satellites in low Earth orbit.
This increase in dimension raises doubts about whether such objects will pose an even greater problem for observing the Universe. Although the concern may not only be about what is seen in the sky, there are also fears related to what is being listened to.
Since the launch of the Starlink constellation in 2019, it has rapidly expanded, transforming internet access in remote global areas. However, this growth has generated significant discussions in the scientific community, with light trails crossing observatory images and potential interference with radio telescopes worrying astronomers.
SpaceX itself has acknowledged these challenges and has been working on solutions to mitigate the impact of its satellites on astronomy. Measures such as less reflective surfaces and greater attention to radio signal leakage have made the satellites more discreet, although not invisible, keeping the astronomical community cautious about the new generation.
The Starlink V3 marks a substantial technological advance compared to the V2. According to SpaceX, each unit offers a transmission capacity of 1 terabit per second in downlink and 160 gigabits per second in uplink, representing tenfold improvements in download and twenty-twofold improvements in upload compared to the V2. The antennas of the new models support 4,096 communication beams, an increase from the 336 of the V2, allowing for more simultaneous users with higher speeds.
This gain in capacity comes from new processors, more advanced antennas, faster inter-satellite communication, and more efficient electronic systems. However, all this computational and transmission power implies a high energy cost, requiring an increase in solar panels to generate the necessary energy in orbit.
Although SpaceX has not disclosed all official specifications of the Starlink V3, estimates based on images suggest that the satellite has two large solar panels of 19 meters each. Together with the satellite body, which is larger than a dining room, the total structure reaches about 45 meters end-to-end.
Initially, such a large satellite might seem brighter, but modern solar panels are designed to maximize light absorption. Furthermore, in response to astronomical criticism, SpaceX introduced modifications such as VisorSat, a type of visor to reduce solar incidence on the brightest parts of the structure.
Based on the estimated dimensions, it is predicted that a Starlink V3 will be only about half a magnitude brighter than a Starlink V2, if no other measures are implemented. This increase would be noticeable, but much smaller than the size suggests, although this needs to be confirmed in practice.
However, while the visual impact may be minimized for observers with optical telescopes, the situation is different for those who 'listen' to the universe through radio waves. Radio telescopes study extremely weak signals from distant galaxies, interstellar gas clouds, pulsars, and the primordial Universe, seeking to unravel mysteries such as the origin of dark energy.
The core of the problem lies in spurious emissions, or unwanted 'leakages' of signal in bands distinct from those used by the radio transmitter, and not in the authorized operating frequencies. Researchers have already identified unintentional emissions from Starlink satellites in bands used in radio astronomy—weak signals, but capable of affecting highly sensitive instruments.
The prospect of satellites operating with higher power, transmitting more data to a vast audience, and functioning continuously raises serious questions. Despite SpaceX's investments in efficient electronics and filtering, conclusive public data on the real impact of this new generation on radio astronomy is still lacking, which will likely only be known after its full operation.
This concern adds to other debates about mega-constellations, such as the growing risk of collisions in orbit, which could trigger the Kessler Syndrome. Theoretically, the increased transmission capacity of the V3 could reduce the number of satellites needed, but this does not appear to be SpaceX's adopted strategy.
The technological advance represented by the Starlink V3 is undeniable; no global company has managed to develop, manufacture, and operate satellites with such capacity in such a short period, consolidating SpaceX at the forefront of the global communications revolution.
The future challenge, as the saying goes, is to balance the expansion of these technologies with the preservation of the conditions necessary for the scientific exploration of the Universe, connecting billions without neglecting the ancestral connection to the stars.
