logo
Meet Aarav Malhotra who scored perfect 500 out of 500 In CBSE Class 10th Results; he studies at..., he is from...

Meet Aarav Malhotra who scored perfect 500 out of 500 In CBSE Class 10th Results; he studies at..., he is from...

India.com19-05-2025

New Delhi: The CBSE announced the results for the Board exams recently and there were many students who stood out with their performances and marks. According to CBSE, this year, the overall Class 10 pass percentage is 93.66%, which is a bit higher than the last year.
Here, we will talk about one student who amazed a lot of people with his marks. His name is Aarav Malhotra, a 15-year-old student from Greater Noida. Aarav Malhotra has scored a perfect 100% in the CBSE Class 10 exams 2025. It means that in all the five subjects he secured full marks, 100 out of 100 which is a total of 500/500.
Aarav's CBSE result reflects his intelligence, dedication, and perseverance. In a way, he has become an inspiration for other students.
Aarav Malhotra studies at Delhi Public School, Knowledge Park-V, Greater Noida (West). Known for its modern teaching approach and well-rounded education system, DPS Greater Noida (West) has every reason to celebrate as Aarav's success is a proud moment not only for his family but for the entire school community.
Aarav's choice of subjects is also very interesting. He did not go with the usual combinations rather chose an unusual combination. Along with English, Maths, Science, and Social Science, he selected French as his second language and Artificial Intelligence (AI) as his sixth subject.
He scored 100 out of 100 in English Language & Literature, French, Mathematics Standard, Science, and AI while in Social Science he scored 98 out of 100. His best five subjects add up to a perfect 500/500, bringing him to limelight.
Aarav's parents, Aarunshi and Kumud Malhotra, were always there for him to provide continuous support and motivation which played a key role in his achievement.
His teachers describe him as a highly attentive student who studies smart.

Orange background

Try Our AI Features

Explore what Daily8 AI can do for you:

Comments

No comments yet...

Related Articles

Mukesh Ambani donates ₹151 crore to alma mater ICT
Mukesh Ambani donates ₹151 crore to alma mater ICT

Hindustan Times

time2 hours ago

  • Hindustan Times

Mukesh Ambani donates ₹151 crore to alma mater ICT

MUMBAI: Industrialist Mukesh Ambani on Friday announced an unconditional grant of ₹151 crore to his alma mater, the Institute of Chemical Technology (ICT, formerly UDCT), Mumbai. The donation was made in honour of Prof M M Sharma, on the occasion of the release of his biography Divine Scientist, published in both Marathi and English. Ambani shared personal memories of Prof Sharma, recalling how the first lecture he attended by him shaped his path. 'Like my father Dhirubhai Ambani, he had a burning desire to change Indian industry from scarcity to global leadership,' said Ambani. 'These two bold visionaries believed that science and technology, in alliance with private entrepreneurship, would open the floodgates of prosperity.' Crediting the rise of the Indian chemical industry to Prof Sharma's efforts, Ambani called him a 'Rashtra Guru' and 'a Guru of Bharat.' Ambani said the ₹151 crore unconditional donation was his guru dakshina made as per Prof Sharma's instruction. 'When he tells us something, we just listen. We don't think,' Ambani said. The event was held at ICT's Pidilite Hall and presided over by senior nuclear scientist Anil Kakodkar. Several eminent scientists, including Raghunath Mashelkar, J B Joshi, Aniruddha Pandit, and G D Yadav, paid tribute to Prof Sharma's legacy in education and science. Divine Scientist was written in Marathi by Anita Patil and translated into English by Sonia Khare. Prof Sharma, who joined UDCT as a professor at 27, has dedicated over six decades to teaching and research. His former students, many of whom went on to become pioneers in Indian science, recalled his influence and humility.

Earth shook every 90 seconds for 9 days in 2023; scientists finally reveal the shocking reason
Earth shook every 90 seconds for 9 days in 2023; scientists finally reveal the shocking reason

Time of India

time10 hours ago

  • Time of India

Earth shook every 90 seconds for 9 days in 2023; scientists finally reveal the shocking reason

Earth shook every 90 seconds for 9 days in 2023 In September 2023, seismic monitoring stations around the world began to register an eerie, rhythmic signal. Every 90 seconds, the Earth appeared to pulse—faintly but persistently. The phenomenon lasted for nine days and returned a month later, leaving scientists puzzled. There was no accompanying earthquake, volcanic eruption, or explosion to explain the tremors. The source of the mystery was traced to the remote Dickson Fjord in East Greenland. At the time, theories ranged from submarine volcanic activity to secret military tests. Now, almost two years later, researchers from the University of Oxford have offered the first concrete explanation using next-generation satellite and machine learning technologies. What they uncovered reveals not only the cause of the pulses but also a broader warning about the climate crisis unfolding silently in the world's most remote corners. The Earth shook without warning: 2023's 90-second Arctic pulse For nine consecutive days in September 2023, and again in October, seismic stations recorded signals repeating every 90 seconds. These pulses were subtle—far weaker than earthquakes—but unusual because of their precise regularity and global reach. The signals came from the Arctic, specifically from the Dickson Fjord in East Greenland. The incident baffled geophysicists and prompted international investigations. With no explosion, tectonic activity, or obvious surface disturbance detected, the mystery deepened. Seiches vs. Tsunamis: Understanding the difference Initially, some suspected a tsunami might be responsible. But experts soon distinguished the phenomenon as a seiche—a lesser-known but powerful water oscillation. Tsunami: Caused by abrupt displacement of water due to earthquakes, volcanic activity, or landslides. It travels as a single massive wave. Seiche : Occurs when water in an enclosed space like a lake or fjord repeatedly sloshes back and forth, creating standing waves. These are often triggered by landslides, strong winds, or seismic activity. In this case, scientists confirmed the Dickson Fjord had experienced seiches—giant oscillating waves that created rhythmic seismic pulses without causing surface devastation. What caused the Greenland Seiches Researchers now confirm that the seismic pulses were the result of two massive glacier-induced rock and ice avalanches. These avalanches thundered into Dickson Fjord, displacing enormous volumes of water and generating tsunami-like waves with an initial height of up to 7.9 meters. Due to the fjord's narrow and enclosed topography, the waves couldn't escape and instead bounced back and forth like water in a bathtub. These oscillations—seiches—persisted for days, producing low-frequency seismic energy detectable across continents. How NASA's SWOT satellite uncovered Greenland's hidden waves The game-changer was data from NASA and the French space agency CNES's Surface Water and Ocean Topography (SWOT) satellite, launched in December 2022. The satellite's Ka-band Radar Interferometer (KaRIn) allowed researchers to scan a 30-mile-wide swath of the ocean surface in high resolution—something no previous satellite system could do. Oxford scientists used SWOT to map subtle elevation shifts in the fjord's surface after the event. They observed slopes of up to two meters across the channel that reversed direction over time—clear signatures of standing wave motion. Supporting evidence: Machine learning and seismic models To fill in gaps in satellite data, scientists employed: Machine learning to reconstruct wave behavior over time. Crustal deformation data from sensors thousands of kilometers away. Weather pattern analysis, ruling out wind and tides as causes. This multidisciplinary approach confirmed that the rhythmic seismic pulses came from seiche-driven energy trapped in the fjord. Climate change's fingerprints are all over the event The most alarming takeaway from the study is the role of climate change. Warming Arctic temperatures are rapidly melting Greenland's glaciers, weakening adjacent slopes and increasing the frequency of catastrophic landslides. As lead researcher Thomas Monahan stated: 'Climate change is giving rise to new, unseen extremes. These changes are happening fastest in remote areas like the Arctic, where our ability to monitor them has historically been limited.' The study highlights how climate-driven geological events can have global seismic effects—often silently and without warning. Why it matters: A new era of Earth monitoring The incident and its resolution mark a turning point in Earth observation. Co-author Professor Thomas Adcock emphasized: 'This is a perfect example of how next-generation satellite data and advanced modeling can resolve phenomena that have long been mysteries. We're entering an era where we can better track tsunamis, storm surges, and even rogue waves.' Moreover, a Danish military vessel patrolling the fjord three days after the first pulse observed nothing out of the ordinary—underscoring how even massive events can leave little trace without advanced monitoring systems.

Bengaluru stampede tragedy: What science tells us about crowd control
Bengaluru stampede tragedy: What science tells us about crowd control

The Print

time2 days ago

  • The Print

Bengaluru stampede tragedy: What science tells us about crowd control

Several stampedes have occurred in India just this year. On 15 February, a stampede at the New Delhi Railway Station killed 18 people, including many passengers who were travelling to the Maha Kumbh Mela in Prayagraj, which also experienced a stampede in January. At least 30 people died at the religious gathering as crowd management measures failed. Published in Nature in February, the study analysed video footage from Spain's San Fermin festival, popular for its running of the bulls event held in July every year. Researchers found that when crowds reached a certain density, spontaneous and rhythmic patterns emerged. Termed 'collective oscillation', the crowd self-organised, and began forming involuntary large-scale, wave-like patterns. New Delhi : A stampede during Royal Challengers Bengaluru's victory celebrations outside the Chinnaswamy Stadium claimed 11 lives Wednesday, and injured several others. Stampedes are recurring tragedies in India, but a study by French and Spanish researchers suggests that patterns emerge in tightly packed crowds. The correct identification of these oscillations, and monitoring via drones and CCTVs, can ensure crowd control and safety during mass gatherings, it says. While these events haven't undergone any scientific scrutiny, the observations from the study in Nature have the potential to help organisers prevent the next stampede. In an interview to The New York Times, France-based physicist Dr. Denis Bartolo, who co-authored the study, said that he placed cameras across the plaza to film the movements of the crowd below. At first, it seemed 'erratic, chaotic, turbulent'. But Bartolo and his team applied fluid dynamic techniques to 'measure the flow of a material by inspecting its direction and velocity'. Similar orbital motions—which took 18 seconds to complete in that particular plaza—were detected right before a stampede that took place at the 2010 Love Parade in Duisburg, Germany, the study shows. The researchers found that above a critical density of people, these oscillations emerge almost organically, without any external guidance. These oscillations are caused by random interactions between people—a slight nudge to gain space, a shuffling of feet, or even an adjustment of posture. These 'odd frictional forces' provide a sort of collective quality to the crowd, leading the mass to exhibit properties similar to fluids. By mapping where and when oscillations start, organisers of mass events can use monitoring tools, like drones or CCTVs, to identify areas in the crowd before a disaster occurs. If these circular motions are detected, the relevant action can be taken, thereby averting stampede-like situations. A similar study, published in Nature in December 2024, studied how crowds behave in marathon events, where groups of runners move in the same direction. Particularly, the goal was to 'investigate the impact of race staff on crowd dynamics'. Similar to ripples in water, the simulations showed wave-like patterns coursing through the crowd. 'We can very clearly observe that starting from the initial homogeneous and random velocity of particles, density and velocity patterns are formed,' read the report by researchers from Indian Institute of Technology-Banaras Hindu University. But an NYT report warned that real-world applications may be limited—'It's one thing to have a well-lit venue filmed with high-quality cameras. But grainy nighttime security footage, for instance, may not reveal the telltale circular movements.' However, recognising that patterns form right before stampede-like events is the first step to building effective crowd management techniques. (Edited by Mannat Chugh) Also Read: 'My brother was crazy about cricket, it took his life': Chinnaswamy stampede leaves families devastated

DOWNLOAD THE APP

Get Started Now: Download the App

Ready to dive into the world of global news and events? Download our app today from your preferred app store and start exploring.
app-storeplay-store