A team led by astrophysicist Mark Hollands of the University of Warwick has identified WD J1330+6435, a white dwarf about 280 light-years away in the constellation Draco, whose spectrum implies a chartreuse-green colour to the human eye - a shade not previously recorded for a star. Its surface is about 4,000 degrees Celsius, and the colour is attributed to sodium interacting with helium in an extremely dense atmosphere. Sodium, calcium and lithium detected there are thought to be rocky planetary debris that fell onto the star. The same study reports the salmon-pink WD J1011+2845, 48 light-years away in Leo Minor, in RAS Techniques and Instruments.
GK ByteWD J1330+6435, about 280 light-years away in the constellation Draco, is the first white dwarf found to appear chartreuse greenIts surface temperature is about 4,000 degrees Celsius; the colour is attributed to sodium interacting with helium in its very dense atmosphereSodium, calcium and lithium in the atmosphere are believed to be rocky planetary debris that fell onto the star after its planetary system was disruptedThe team was led by Mark Hollands of the University of Warwick and published in RAS Techniques and Instruments; it also reports the salmon-pink WD J1011+2845, 48 light-years away in Leo Minor
Samsung Semiconductor India Research (SSIR) and the Indian Institute of Science have inaugurated a Quantum Research Lab on the IISc campus in Bengaluru, funded through SSIR's CSR support and housed in the Department of Electronic Systems Engineering. Led by Professor Mayank Shrivastava, it will work on qubit characterisation, cryogenic electronics, single-photon sources and detectors, and 2D-material quantum devices. The lab feeds India's National Quantum Mission, approved in 2023 with an outlay of Rs 6,003.65 crore for FY 2023-24 to FY 2030-31 and implemented by the Department of Science and Technology. IISc already hosts a quantum computing hub opened in September 2026.
GK ByteSamsung Semiconductor India Research (SSIR) and IISc inaugurated a Quantum Research Lab at IISc Bengaluru's Department of Electronic Systems Engineering, funded through SSIR's CSR supportThe lab is led by Professor Mayank Shrivastava and focuses on qubit characterisation, cryogenic electronics, single-photon sources and detectors, and 2D-material quantum devicesIndia's National Quantum Mission was approved in 2023 with an outlay of Rs 6,003.65 crore for FY24 to FY31The National Quantum Mission is implemented by the Department of Science and Technology (DST)
The Technology Development Board (TDB), under the Department of Science and Technology, extended a combined Rs 301 crore in research and innovation support to two deep-tech firms. The agreement with ideaForge (Mumbai), signed on 14 October 2026, backs YETI, a heavy-lift autonomous aerial logistics vehicle - a hybrid VTOL UAV with a 200 kg payload, 200 km range and a 6,500 metre ceiling - costing Rs 302 crore including Rs 151 crore of debt. The QNu Labs (Bengaluru) agreement of 16 October 2026 supports India's Quantum Secure and Sensing Networks (IQSN), a Rs 300 crore project with Rs 150 crore as optionally convertible debt.
GK ByteThe Technology Development Board signed agreements giving a combined Rs 301 crore in RDI support to ideaForge and QNu LabsideaForge's YETI is a hybrid VTOL heavy-lift autonomous aerial logistics vehicle with a 200 kg payload, 200 km range and a 6,500 metre ceilingQNu Labs' project covers India's Quantum Secure and Sensing Networks (IQSN), spanning quantum-secure identity, location integrity, network security and time synchronisationThe TDB functions under the Department of Science and Technology, Ministry of Science and Technology
The Research, Development and Innovation Fund (RDIF) announced its first cohort of 19 Second Level Fund Managers — 14 Alternative Investment Funds and five Focused Research Organisations — with a combined commitment of Rs 7,131 crore. The Empowered Group of Secretaries approved them on 8 October, and the Ministry of Science and Technology announced the cohort on 12 October 2026. RDIF is managed by an Independent Business Unit inside the Anusandhan National Research Foundation under the Department of Science and Technology. Managers will fund enterprises doing R&D at Technology Readiness Level 4 and above, and must mobilise private capital matching the RDIF contribution.
GK ByteRDIF named 19 Second Level Fund Managers - 14 Alternative Investment Funds and 5 Focused Research Organisations - with Rs 7,131 crore committedApproved by the Empowered Group of Secretaries on 8 October 2026 and announced by the Ministry of Science and Technology on 12 October 2026RDIF runs the Rs 1 lakh crore RDI Scheme launched in November 2025, via an Independent Business Unit inside the Anusandhan National Research Foundation, under DSTCapital goes to enterprises at Technology Readiness Level 4 and above; managers must match the RDIF contribution with private capital. First call opened January 2026
Two independent groups reported the first working nuclear clocks in Nature on 7 October 2026, both embedding the radioactive isotope thorium-229 in a calcium fluoride crystal and locking a laser to its nuclear transition frequency. Unlike atomic clocks, which count transitions of electrons between energy levels, a nuclear clock counts a transition inside the nucleus - far smaller and better shielded from stray electromagnetic fields, so potentially far more stable. The teams, led by Thorsten Schumm and Shiqian Ding, already used their clocks to search for dark matter at a sensitivity rivalling the best atomic clocks.
GK ByteBoth clocks use thorium-229 embedded in a calcium fluoride crystal; the two papers appeared in Nature on 7 October 2026An atomic clock tracks electron transitions between energy levels; a nuclear clock tracks a transition within the atomic nucleusThe teams were led by Thorsten Schumm and Shiqian Ding; stability is still below that of the best atomic clocksThe clocks were already applied to dark-matter searches; thorium-229 was proposed as the ideal candidate nucleus in 2003
The Ministry of Electronics and Information Technology (MeitY) has begun rolling out the National Strategy for Additive Manufacturing (NSAM) 2.0, succeeding the first strategy issued in 2022. NSAM 1.0 targeted a 5% share of the global additive-manufacturing market, US$1 billion added to GDP, 50 technologies, 100 startups and 500 products; it trained over 1.54 lakh people, funded 56 startups and produced 65 indigenous technologies across seven national centres. NSAM 2.0 shifts focus to faster intellectual-property generation, a national digital network linking labs, testing and fabrication centres, cluster-based common facility centres for MSMEs, and domestic supply of additive-manufacturing electronics.
GK ByteNSAM 2.0 is being rolled out by the Ministry of Electronics and Information Technology (MeitY), succeeding NSAM 1.0 of 2022NSAM 1.0 targeted a 5% share of the global additive-manufacturing market and US$1 billion added to GDPNSAM 1.0 trained over 1.54 lakh people, funded 56 startups and developed 65 indigenous technologies across seven national centresNSAM 2.0 prioritises IP generation, a national digital network of labs and fab centres, MSME common facility centres and AM electronics
The Royal Swedish Academy of Sciences awarded the 2026 Nobel Prize in Chemistry to France's Henri B. Kagan of Université Paris-Saclay, Orsay, and Japan's Kenso Soai of Tokyo University of Science, announced on 7 October 2026, "for the discovery of non-linear effects and autocatalysis in asymmetric organic synthesis". The two share 12 million Swedish kronor. Their work explains how molecules existing as non-superimposable mirror images can come to favour a single handedness: the Soai reaction amplifies a minute chiral imbalance into near-total purity, offering a chemical route to the homochirality of life's building blocks — a puzzle chemists had faced for over a century.
GK ByteLaureates: Henri B. Kagan (France) and Kenso Soai (Japan); announced 7 October 2026Citation: 'for the discovery of non-linear effects and autocatalysis in asymmetric organic synthesis'Awarded by the Royal Swedish Academy of Sciences; prize of 12 million Swedish kronor shared equallyThe work explains homochirality — why biological molecules overwhelmingly favour one mirror-image form
Belgian-born physicist Francis Halzen of the University of Wisconsin-Madison won the 2026 Nobel Prize in Physics, announced by the Royal Swedish Academy of Sciences on 6 October 2026, "for decisive contributions to the IceCube Neutrino Observatory and the discovery of high-energy neutrinos of astrophysical origin", with a prize of 12 million Swedish kronor. Halzen proposed detecting neutrinos in Antarctic ice in 1988. The cubic-kilometre detector at the South Pole, built from light sensors frozen deep into glacial ice, began operating in 2010, was completed in 2011 and recorded the first high-energy extraterrestrial neutrinos in 2013, opening the field of neutrino astronomy.
GK ByteLaureate: Francis Halzen, University of Wisconsin-Madison; announced 6 October 2026Citation: contributions to the IceCube Neutrino Observatory and discovery of high-energy astrophysical neutrinosIceCube is a cubic-kilometre detector in glacial ice at the South Pole — operational 2010, completed 2011First high-energy extraterrestrial neutrinos recorded in 2013; Halzen proposed the concept in 1988