Google has unveiled a new series of Pixel devices, which includes the Pixel 11, Pixel 11 Pro, Pixel 11 Pro XL, and the foldable Pixel 11 Pro Fold. These gadgets are equipped with the new Tensor G6 processor, an updated camera array, and artificial intelligence features, although there have been no major revolutionary changes in the lineup.
For the first time in this new generation, an LED notification indicator next to the cameras has appeared, named HiLight. Google continues to focus on computational photography without using extremely high-spec sensors.
The Pixel 11 will be available in the US starting at $899 USD (equivalent to approximately 4,650 Brazilian Reais at the direct exchange rate). The Pro models start from $1,099 USD (5,680 Reais), and the Pixel 11 Pro XL starts from $1,299 USD (6,720 Reais). This represents a price increase of $100 across all models compared to the previous generation.
The price hike is attributed to cost pressures in semiconductor and RAM. Furthermore, unlike the entire Pixel 10 Pro lineup, which initially offered 16GB of RAM, the new series starts with 12GB. As in previous years, there are no expected launch dates for Brazil.
In the Pro models and the Pixel 11 Pro Fold, Google added the HiLight feature—an RGB LED ring that signals certain notifications. The company actively promoted this feature in pre-release teasers, generating anticipation regarding HiLight's capabilities, such as battery level color indicators and new connections, which is an update to the famous BlackBerry device notification indicator.
However, according to a note, 'reality tends to be disappointing.' Currently, only two configuration options are available: reacting to interactions with Gemini Intelligence or flashing (in preset colors) when receiving calls from selected contacts. According to the demonstration video, the goal is for the user not to be distracted by numerous different notifications, but only by truly important calls.
The main update in the Pixel 11 family is the new Tensor G6 chip. This chip, which was manufactured by Google for the first time at the TSMC factory using 2nm lithography, promises up to 20% improved energy efficiency compared to the Tensor G5. In the three traditional models, storage starts at 256GB, and RAM starts at 12GB.
The Pixel 11 screen is a 6.3-inch OLED panel with a refresh rate from 60 to 120Hz. The Pixel 11 Pro retains the 6.3-inch size but uses an LTPO OLED display with a resolution of 1280 x 2856 pixels and a variable refresh rate from 1 to 120Hz; the Pixel 11 Pro XL increases the screen to 6.8 inches.
Regarding batteries, the Pixel 11 has a typical capacity of 4,985 mAh, the Pixel 11 Pro has 4,850 mAh, and the Pixel 11 Pro XL has 5,115 mAh. All devices support Qi2.2 magnetic wireless charging and have an IP68 rating against water and dust.
The Pixel 11 camera system is a triple configuration: a 48MP main lens (f/1.7), a 13MP ultrawide lens (f/2.2), and a 10.8MP telephoto lens (f/3.1) with 5x optical zoom and optical stabilization. The configuration is more powerful in the Pro versions: both versions use a 50MP main lens (f/1.68), a 48MP autofocus and macro ultrawide lens (f/1.7), and a 48MP telephoto lens (f/2.8).
Among the software features, the lineup includes Camera Looks, which modifies image processing to create stylized photography. The app also receives Magic Capture, capable of generating short hybrid clips and photos from long recordings, as well as the Creator Suite package, which includes a teleprompter, social media framing guides, and voice isolation.
Concluding the list of innovations, the Pixel 11 Pro Fold maintains Google's premium foldable concept. The brand has abandoned the trend of 'passport'-sized foldables and retained a traditional design, featuring a large external screen of 6.5 inches and an internal screen (when unfolded) of 8 inches. This model uses the same Tensor G6 as the main lineup, supports Qi2.2, and inherits the 48MP main camera from the Pixel 11. Unlike its 'regular' siblings, it comes with a base configuration of 16GB of RAM and 256GB of storage. However, the battery capacity has been reduced to 4,800 mAh, compared to 5,015 mAh in the Pixel 10 Pro Fold, although Google promises up to 24 hours of usage.
A successful test of an experimental electromagnetic train was conducted on a kilometer-long test track in Hubei Province, China. The unit, weighing 1.1 tons, managed to accelerate from zero speed to 800 km/h in just 5.3 seconds. This result marks the third world record for this system regarding short-distance acceleration over the past six months.
The tests were carried out on a high-speed magnetic levitation track at the Donghu laboratory. In addition to demonstrating rapid acceleration capability, specialists simultaneously checked the functioning of several critical systems: the levitation system, the electromagnetic drive, the positioning system, and the emergency braking device. Upon reaching high speed, the machine's positioning accuracy reached a level of one millimeter.
After reaching the maximum speed of 800 km/h, the experimental vehicle was smoothly stopped after approximately 200 meters. This test allowed researchers to verify not only the high tractive effort speed but also the ability to safely decelerate the apparatus after operating in extreme mode.
This new success continues a series of achievements. Previously, in June of the previous year, the same unit accelerated a test apparatus weighing about 1.1 tons to 650 km/h in seven seconds. Subsequently, the speed gradually increased, reaching figures of 700 and 798 km/h while simultaneously reducing the acceleration time.
The foundation of the technology is magnetic levitation: the vehicle does not contact the rails during movement. Instead, electromagnetic fields generated by coils along the track provide both levitation and the propulsion process. This fundamentally eliminates mechanical friction, which is characteristic of traditional railway transport.
It is important to note that this machine is not intended for passenger transport. Developers use it exclusively for testing technologies that may be applied in various future fields, including ultra-high-speed ground transport, electromagnetic launch systems, aerospace engineering, magnetic elevators, and industrial equipment.
Current commercial electromagnetic trains operating in China and Japan typically reach speeds of around 320 km/h, while the fastest commercial trains in China reach about 350 km/h. Consequently, achieving 800 km/h remains within the scope of experimental development.
In the context of other transport flows, the 'Slavyansky Karavan' freight train from Belarus previously delivered goods to Uzbekistan in seven days. This consist, comprising 44 wagons, transported timber, sugar, tile materials, and other consumer goods, with the Belarusian side confirming regular weekly departures.
India's transformation into a global technology hub did not happen overnight. The country's technological journey, which began with state scientific development and computing in the public sector, evolved through the growth of software services, startups, digital payments, and artificial intelligence, shaped by the vision of leaders, entrepreneurs, politicians, and engineers.
Books covering this evolution offer more than just historical reports; they reveal the solutions, breakthroughs, failures, and ambitions that contributed to the creation of one of the world's most dynamic technological ecosystems. These publications are useful for those interested in business, innovation, entrepreneurship, or modern Indian history.
One book details the development of India's IT services industry, explaining how the country transitioned from a technological outsider to a global outsourcing leader. The author traces the rise of innovative companies, government policies, and entrepreneurial vision that placed India at the center of the global digital economy. The book provides a comprehensive view of the people and decisions that fueled India's software revolution and created millions of jobs.
Another book analyzes how India's IT sector managed to develop despite infrastructure limitations, regulatory issues, and economic barriers. Through detailed research and industry data, the authors document the key milestones, institutions, and leaders that helped build one of the world's most successful technological systems, making it essential reading for understanding the foundations of India's IT industry success.
A book written by S. Ramadurai, former CEO of Tata Consultancy Services, explores the history of TCS—from a modest technology enterprise to a global IT giant. The narrative highlights the challenges of building a world-class technology company in India and offers valuable lessons on leadership, innovation, and long-term vision. It also serves as a personal account of India's emergence as a major player in global technology services.
It is impossible to discuss India's technological ascent without mentioning the influence of the Indian Institutes of Technology (IITs). Sandipan Deb examines the history of the IITs and the achievements of their alumni worldwide. The book shows how these institutions became magnets for talent and played a crucial role in shaping India's reputation as a technologically advanced nation.
The memoirs of Sam Pitroda document the telecommunications revolution that transformed India. As one of the developers of the country's telecom expansion, Pitroda recounts his efforts to improve connectivity and modernize communication infrastructure. The book demonstrates how access to technology became a catalyst for economic growth and social change across the nation.
Another volume tracks India's space program from humble beginnings to globally recognized achievements, such as the Mars Orbiter Mission. Through the contributions of scientists and experts, the book documents the innovation, determination, and scientific excellence that helped establish India as a major space power.
A book dedicated to Aadhaar, one of the world's largest digital identification projects, explores its origins, challenges, and impact. Iyer examines how technology was used to solve governance and service delivery problems on an unprecedented scale, offering valuable insights into the intersection of technology, public policy, and digital transformation in India.
In this influential work, Nandan Nilekani explores the economic, social, and technological forces shaping India's future. He discusses demographics, innovation, education, and governance, presenting a vision of how technology can help solve national challenges. This book remains one of the most important works on India's modernization.
It also examines how technology can transform governance, public services, and citizen engagement. The authors explain how innovations can help solve large-scale problems in such a diverse country, using examples of digital infrastructure and policy reforms, offering a practical roadmap for leveraging technology to improve lives.
Ravi Agrawal investigates the profound impact of smartphones on Indian society, politics, business, and culture. Through stories from across the country, he shows how mobile technology has changed communication, opportunities, and civic participation. The book captures the latest chapter of India's technological evolution and underscores the transformative power of digital connectivity.
India's technological evolution is a story of ambition, innovation, and perseverance. From the growth of the IT industry and telecommunication networks to space exploration, digital identification systems, and smartphone adoption, these ten books document the milestones that have turned India into a global technology leader. Together, they provide a comprehensive picture of how technology has reshaped the nation's economy, institutions, and daily life.
At the second World Championship for humanoid robots, which will take place in Beijing, robots are expected to set new world records. These 'athletes' do not know fatigue and are ready to break all existing records. The grand opening will take place on August 22nd at Beijing's 'Ice Ribbon.'
The event is jointly organized by the Municipal Government of Beijing and China Media Group. The program has been expanded from three days to five, and sessions are now held both during the day and in the evening.
This year's competition includes 51 competitive events and 1301 matches over five days, nearly double the debut edition, which featured 26 events and 487 matches. 666 teams and 2056 robots from 16 countries across six continents are participating, representing a 138% increase in teams and a fourfold increase in robots.
Teams from robotics leaders such as the USA, Germany, and Japan are taking part in the competition. Additionally, Brazil has assembled a team of five World Robot Cup champions. Domestically, the competition involves 157 enterprises, 641 teams, and 1975 robots, with all major industry players present. Teams from 27 Chinese universities are competing, covering 30 provinces, autonomous regions, municipalities, and special administrative regions.
Innovations: Transition from Demonstration to Practical Readiness
The updated program includes 30 competitive and 21 scenario events, compared to six scenarios last year. Scenario tests simulate nine real environments: residential buildings, hotels, industrial facilities, emergency rescue operations, logistics, libraries, retail, office services, and vehicle charging.
Two new tests expand the boundaries of robot capabilities in practical conditions. The 'Agile Hand' test checks precision in assembling tools, weighing powder, stacking blocks, hammering nails, opening bottles, unpacking, gripping with tweezers, and connecting cables. This involves micro-vision, motion planning, force control accuracy, and operational precision. The 'Integrated Five' test requires robots to perform agile operations, stable object transfer, and heavy lifting while running a 100-meter distance.
Time limits have been significantly reduced to increase complexity: the 100-meter run has been cut from three minutes to one, the 400 meters from 15 minutes to five, and the 1500 meters from 40 minutes to 15. Autonomy requirements have also become stricter: all running and competitive disciplines must be completed fully autonomously, without remote control, except for the 100 and 400-meter obstacle races.
In scenario events, full autonomous completion carries a weight coefficient of 1.0, whereas completion with remote control is limited to a coefficient of 0.5. A significant change was made to the rules of robot football: a goal is only counted if the ball touched at least two teammates during play, which is a deliberate step to reduce individual performances of a single robot and encourage team coordination. This rule tests the ability to cooperate and communicate, not just the hardware capabilities of individual machines.
Gold medals will be awarded in all nine sessions, with 12 being determined on August 23rd, second only to the closing ceremony. The opening night ceremony will feature a 7 vs 7 football match, as well as preliminary 400 and 100-meter runs. Finals for freestyle wrestling and 5 vs 5 football will take place before the closing ceremony.
Records are expected to be broken on the track. In April, a humanoid robot covered a half marathon in 50 minutes and 26 seconds, faster than the human world record. Robot football players have also improved their skills, learning to dribble, shoot powerfully, and make saves.
Freestyle wrestling competitions will take place over eight sessions in three weight categories: 40 kg, 58 kg, and 80 kg, and they will be significantly more competitive than last year. On August 24th, a new competitive element—weightlifting—will be added, awarding gold medals in both light and heavy weights. Dance disciplines have increased from 29 teams to 108, where robots compete in street dance, ballroom dance, and cheerleading. 223 judges will work at the event this year—100 more than last year, including 28 international-level judges, 75 national-level judges, and 120 first-level judges. The arbitration committee has been strengthened to promptly resolve disputes.
