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Although quantum computing is a fast growing field, skill and expertise in this new area of technology is desperately needed, and leading Indian institutions along with IBM India have been working on a programme to skill India.

Quantum computing has found application across medicine, agriculture, and finance. The government of India launched the National Mission on Quantum Technologies and Applications (NMQTA) stressing the importance of pushing forward the quantum domain in India. IBM India recently collaborated with leading institutions of India to accelerate training and research in quantum computing. Gadgets 360 talked to L Venkata Subramaniam, Senior Manager, AI at IBM Research India, Professor Anil Shaji from Indian Institute of Science Education and Research (IISER), Thiruvananthapuram, and Professor Anil Prabhakar of Indian Institute of Technology (IIT), Madras to understand what quantum computing is all about.

Is quantum computing a once in an era sort of change?

The power of quantum computing comes from two basic phenomena of quantum mechanics – superposition and quantum entanglement. While the bits in a classical computer exist as a string of zeros and ones, a quantum bit or a qubit can stay in a state of a combination of zero and one – this is called superposition. Entanglement, the other phenomena that powers quantum computing, is a connection between qubits. “The qubits needn’t be close to each other. One qubit can be in Delhi and the other can be in the other end of the universe. But if they are entangled, then by looking at the state of one of the qubit, you’ll be able to predict the state of the other qubit,” explained Subramaniam. By exploiting these two phenomena, quantum computing can be put into use in a wide range of activities ranging from speeding up the discovery of drugs and fertilizers to solving complex optimisation problems.

The government in its budget last year had announced NMQTA under the Ministry of Science and Technology with a total budget outlay of Rs. 8000 crore for the advancement of quantum technology. IBM’s collaboration with the leading educational institutions in India is aligned with this step by the government. Through IBM’s Quantum Educator Programme, the company will join hands with the faculty and students of Indian Institute of Science Education & Research (IISER) – Pune, IISER – Thiruvananthapuram, Indian Institute of Science Bangalore, Indian Institute of Technology (IIT) – Jodhpur, IIT – Kanpur, IIT – Kharagpur, IIT – Madras, Indian Statistical Institute Kolkata, Indraprastha Institute of Information Technology Delhi, Tata Institute of Fundamental Research Mumbai, and the University of Calcutta to further research and education in quantum computing.

IBM introduced quantum computers over the cloud almost 5 years ago. The collaborating institutions will get priority access to IBM’s quantum systems, learning resources, and quantum tools over the cloud. Thus the students will get an opportunity to work on actual quantum computers and programme them using Qiskit, a python-based open-source framework developed by IBM.

Skilling India to lead the way?

A 2019 study published by Progressive Policy Institute pointed out that India will overtake the US as the world’s largest developer population centre by 2024. With a bit of training starting at the university level, the STEM students from India could adapt themselves to work and lead in the quantum computing arena with greater efficiency.

Talking about the current state of quantum technology courses in Indian institutions, Subramaniam said, “A lot of the courses are very theoretical in nature, there are no hands-on lab sessions. We are enabling the students and the faculty to get all the materials including the lab materials, the study material, and the start up code which will get them started”.

According to Professor Shaji of IISER Thiruvananthapuram, there is a bit of an issue in managing the expectations of students regarding quantum computing. “A lot of students are really interested in studying quantum computing now because of all the emphasis and also a bit of a hype surrounding quantum computing and quantum technologies,” Professor Shaji said. IISER

Thiruvananthapuram is also a part of the NMQTA. One of the researches that IISER is undertaking involves building a quantum computer using a different technology than that of IBM.

Professor Shaji said that the collaboration initiated by IBM will have a significant cascading effect in the term of five to ten years as the students are getting an early exposure to this up and coming technology. Talking about the student’s response he added, “There is quite a bit of news hype around this subject, so one goes in there expecting miracles to come out of it. It is important that the students understand that the technology is still in its baby steps. It is necessary to understand there are things that you can do and there are things that you would like to do but cannot do yet.”

IIT Madras has a Centre for Quantum Information, Communication, and Computing, where quantum computing is one among the three verticals in quantum research for the institution. Apart from the Quantum Educator’s Programme, IIT Madras has also joined hands with IBM for a course on quantum computing at the National Programme on Technology Enhanced Learning (NPTEL), an online learning platform funded by the Ministry of Human Resource and Development, Government of India which provides free courses on university-level STEM subjects. The quantum computing course on NPTEL which is set to start by late August has already received over 6,000 registrations, a clear indication of student-interest towards the subject.

Professor Prabhakar of IIT Madras said that the institution has priority access to a number of IBM’s quantum machines. “Our students are able to take a quantum computing lab where they are running problems on these machines. Many of the machines are also available to the public, but not with priority. We can also reserve some machines for use for our students. This enables the students to be more focused on what they are doing. Our goal is to be able to train at least 15 students each year at a higher level.”


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Solar System’s Journey Through Orion Complex May Have Altered Earth’s Climate

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Solar System’s Journey Through Orion Complex May Have Altered Earth’s Climate

The movement of the solar system through the Orion star-forming complex around 14 million years ago may have influenced Earth’s climate, according to scientists. This dense region of space, part of the Radcliffe Wave galactic structure, could have compressed the heliosphere—the protective shield surrounding the solar system—while increasing interstellar dust reaching Earth. Researchers suggest that this influx of cosmic dust might have left traces in geological records, potentially linking galactic activity to past climate changes.

Solar System’s Passage Through the Radcliffe Wave

According to the study published in Astronomy & Astrophysics, an international research team led by the University of Vienna used data from the European Space Agency’s Gaia mission and spectroscopic observations to determine that the solar system moved through the Radcliffe Wave in the Orion constellation between 18.2 and 11.5 million years ago. The most probable period was estimated between 14.8 and 12.4 million years ago. João Alves, Professor of Astrophysics at the University of Vienna and co-author of the study, stated to Phys.org, that this research builds on prior findings regarding the Radcliffe Wave. This structure, made up of interconnected star-forming regions, includes the Orion complex, which the sun is believed to have passed through.

Potential Impact on Earth’s Climate

The study suggests that the increased presence of interstellar dust may have influenced Earth’s atmosphere. Efrem Maconi, lead author and doctoral student at the University of Vienna, said that this dust might have contained traces of radioactive elements from supernovae, which could be detected in geological records using advanced technology in the future.

The solar system’s passage aligns with the Middle Miocene Climate Transition, a period marked by a shift from a warmer, variable climate to a cooler one, leading to the development of Antarctic ice sheets. Scientists highlight that while interstellar dust could have played a role, the dominant factor in this climate change was a long-term decrease in atmospheric carbon dioxide levels.

Not Comparable to Human-Induced Climate Change

Maconi noted that while interstellar dust could have contributed to past climate shifts, the amount required for significant change would need to be much greater than current data suggests. The Middle Miocene Climate Transition unfolded over hundreds of thousands of years, unlike modern climate change, which is occurring rapidly due to human activities

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Ancient DNA Sheds Light on the Diverse Genetic Origins of the European Huns

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Ancient DNA Sheds Light on the Diverse Genetic Origins of the European Huns

The origins of the Huns, a nomadic group that played a crucial role in the decline of the Roman Empire, have long remained uncertain. Recent DNA analysis of ancient skeletal remains has provided fresh insights into their ancestry, revealing a diverse genetic makeup rather than a singular point of origin. According to reports, researchers examined remains from individuals buried between the fourth and sixth centuries and found genetic links spanning Central Asia and Eastern Europe. These findings indicate that the Huns were not a homogenous group but a population shaped by centuries of migration and cultural interactions.

Genetic Analysis Reveals Diverse Ancestry

According to the study published in PNAS, a team led by Guido Gnecchi-Ruscone, an archaeogeneticist at the Max Planck Institute for Evolutionary Anthropology, analysed the genomes of 370 individuals. The research aimed to trace connections between European Huns and earlier nomadic groups, including the Xiongnu, whose empire thrived in Mongolia between 200 B.C. and A.D. 100. While certain Hun individuals exhibited direct genetic links to the Xiongnu elite, most carried varying degrees of Northeast Asian ancestry, underscoring a complex history of intermingling.

Connections Across the Eurasian Steppe

Using a technique called identity by descent (IBD) segment sharing, the researchers identified genetic ties across multiple regions over several centuries. Their findings suggested that trans-Eurasian relationships were maintained across generations. While high-status Xiongnu burials in Mongolia showed direct descendants among the European Huns, the study concluded that no large-scale migration of Xiongnu populations into Europe took place.

Insights from an Elite Hun Burial

A burial site in Pusztataskony, Hungary, yielded the remains of a Hun woman with an elongated skull, buried alongside gold earrings. Gnecchi-Ruscone told Live Science that this individual carried genetic markers linking her to the Xiongnu elite, suggesting that skull modification, a notable cultural practice, may have been passed down through generations. The study reinforces the view that the European Huns were a culturally and genetically diverse group shaped by centuries of movement and integration rather than a single migratory event.

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NASA’s IM-2 Mission Brings Ice Mining, Mobile Robots, and More on Moon



Nothing Phone 3a Design Revealed Ahead of March 4 Launch: Expected Specifications

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NASA’s IM-2 Mission Brings Ice Mining, Mobile Robots, and More on Moon

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NASA’s IM-2 Mission Brings Ice Mining, Mobile Robots, and More on Moon

NASA is preparing to send advanced technologies to the Moon through Intuitive Machines’ second lunar delivery under the Commercial Lunar Payload Services (CLPS) initiative. The mission, part of the Artemis programme, aims to establish a sustainable human presence on the Moon. A range of scientific instruments and communication systems will be tested on the lunar surface. The launch window for Intuitive Machines’ second CLPS mission, IM-2, is scheduled to open on 26 February from Launch Complex 39A at NASA’s Kennedy Space Center. The Nova-C class lander will carry key technology payloads, including a drill, mass spectrometer, a cellular network, and a drone for terrain exploration.

Lunar South Pole Exploration

As reported, the landing site for IM-2 has been selected based on data from NASA’s Lunar Reconnaissance Orbiter. Located in the South Pole region, the site offers a relatively flat terrain, meeting the criteria for a safe landing. The area is of particular interest due to its potential for in-situ resource utilisation, which could support future lunar missions.

Demonstration of New Technologies

According to NASA’s Space Technology Mission Directorate, the Polar Resources Ice Mining Experiment-1 (PRIME-1) will be tested as part of the mission. PRIME-1 includes a drill and a mass spectrometer designed to search for water ice and other resources beneath the lunar surface. Data gathered from this experiment will assist in future space exploration efforts by providing insight into potential resource extraction for fuel and oxygen production.

Mobile Robotics on the Moon

Two technology demonstrations will be deployed near the lander under NASA’s Tipping Point initiative. Intuitive Machines has developed a small drone, named Grace, which will conduct high-resolution surveys of the lunar terrain. The drone is designed to navigate steep inclines, craters, and other challenging obstacles, helping scientists study permanently shadowed regions that cannot be accessed by traditional rovers.

Lunar Surface Communication System

A communication system developed by Nokia Bell Labs will be tested to establish a lunar cellular network. The system will enable communication between the lander, a Lunar Outpost rover, and the Grace drone. It will be the first demonstration of cellular-based connectivity on the Moon, with potential applications for future crewed missions and robotic exploration.

Collaboration for Lunar Exploration

NASA is working alongside several U.S. companies to deliver scientific and technological advancements to the lunar surface. The Space Technology Mission Directorate has integrated multiple research and development efforts to support future Moon missions. The combination of CLPS and Tipping Point initiatives aims to advance exploration capabilities, benefiting NASA and the broader space industry.

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