Best researcher Award

 

The International Research Scientist Awards are dedicated to recognizing exceptional contributions to science, innovation, and interdisciplinary advancement. These awards spotlight individuals whose research creates meaningful global impact across academic, industrial, and social domains.

👨‍🔬 Best Researcher Award: The Pinnacle of Academic Achievement

The Best Researcher Award is a prestigious distinction granted to individuals demonstrating outstanding dedication, originality, and influence in their respective research areas. It acknowledges both long-term contributions and recent breakthroughs that shape the future of science and knowledge.

🌐 Global Recognition for Outstanding Research Impact

This award highlights researchers whose work transcends borders—advancing knowledge, solving real-world problems, and contributing to policy, industry, or community solutions. It supports interdisciplinary collaboration and encourages continuous pursuit of excellence.

📊 Evaluation Based on Merit and Impact

Nominees are evaluated on parameters such as innovation, publication quality, citation metrics, societal relevance, and leadership in research. The award elevates the researcher's global profile, unlocking new opportunities for funding, collaboration, and dissemination.

🌟 Inspiring Innovation and Future Discoveries

Recognizing the Best Researcher fosters a culture of innovation and motivates both early-career and experienced researchers to push the boundaries of science. It serves as a beacon for future-focused, ethical, and high-impact research.

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Women Researcher Award

 

The International Research Scientist Awards honor outstanding researchers who demonstrate excellence, innovation, and global impact. These prestigious awards recognize contributions that drive advancement across disciplines—from science and technology to medicine, sustainability, and the humanities.
👩‍🔬 Women Researcher Award: Celebrating Female Excellence in Research

The Women Researcher Award is a dedicated category under the International Research Scientist Awards, designed to celebrate and empower women in science, technology, engineering, and academia. It highlights breakthrough contributions by women who are transforming research landscapes and breaking barriers in their fields.

🌍 Driving Diversity, Equity, and Inclusion

This award reflects a commitment to advancing gender equality in the research ecosystem. It acknowledges the courage, resilience, and leadership of women researchers from all backgrounds who are creating positive global impact through innovation and collaboration.

🔬 Eligibility and Recognition

Open to women researchers at all stages of their careers, the award evaluates originality, publication impact, societal relevance, and research excellence. Winners receive international recognition, networking opportunities, and promotion across global scientific platforms.

🌟 Inspiring the Next Generation of Women in Science

By recognizing pioneering women researchers, this award inspires young girls and emerging scholars to pursue careers in STEM and research, promoting a more balanced and inclusive scientific future.

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Most Cited Article Award

 

📚 Most Cited Article Award

Celebrate excellence in global research! The International Research Scientist Awards honor groundbreaking scientists driving innovation and impact across disciplines. The Most Cited Article Award recognizes researchers whose publications have made exceptional scholarly influence, shaping the direction of future research worldwide. These awards amplify visibility, inspire collaboration, and uphold research excellence on an international scale

🔬 Honoring High-Impact Research

The Most Cited Article Award acknowledges authors of the most frequently cited research publications. It highlights scholarly impact, influence, and long-term contribution to the academic community. This award is a mark of research excellence and visibility, rewarding those whose work resonates across disciplines and inspires future discoveries.

 
🌟 Why These Awards Matter

 
These awards promote visibility, foster interdisciplinary collaboration, and serve as a beacon of excellence for emerging researchers around the world. By celebrating both individual and collaborative achievements, they reinforce the value of impactful, high-quality research on the global stage..

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Scientist Working Laboratory

 

Explore the dynamic world of scientific discovery where researchers work passionately in high-tech laboratories. From pipetting DNA samples to analyzing chemical compounds under microscopes, these scientists exemplify precision, innovation, and the pursuit of knowledge. Their work powers breakthroughs in medicine, biotechnology, chemistry, and environmental science—advancing humanity one experiment at a time.

These images capture the essence of modern science—team collaboration, cutting-edge equipment, and unwavering dedication to uncovering the unknown.

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Earth’s Rotation Speeds Up

 

Recent observations show that Earth’s rotation is accelerating. On 9 July 2025, the planet completed one full spin faster than ever before. This day was shorter by approximately 1.6 milliseconds. Scientists attribute this change to the gravitational influence of the Moon. The phenomenon has implications for timekeeping and scientific study.

Earth’s Rotation and Day Length
Earth’s day length is not constant. It varies due to factors such as gravitational forces, seismic activity, and changes in atmospheric conditions. The Moon’s position affects Earth’s spin by exerting tidal forces. These forces can speed up or slow down the rotation slightly. The 9 July 2025 event marks the shortest day since records began.

Shorter Days in 2025
Following 9 July, other days like 22 July and 5 August 2025 are also expected to be shorter. These repeated speed-ups show a pattern of Earth’s rotation accelerating temporarily. Scientists monitor these changes closely to understand their causes and predict future variations.

Leap Seconds and Timekeeping
To keep clocks aligned with Earth’s rotation, leap seconds are added or subtracted. Since 1972, 27 positive leap seconds have been inserted to compensate for Earth’s slowing spin. A leap second is usually added at the end of June or December. However, due to the recent acceleration, a negative leap second is planned for 2029. This will be the first time a second is removed from Coordinated Universal Time (UTC).

Negative Leap Second Explained
A negative leap second subtracts one second from the official time to correct for faster Earth rotation. This adjustment ensures that atomic clocks remain in sync with astronomical time (UT1), which is based on Earth’s actual spin. The International Earth Rotation and Reference Systems Service (IERS) is responsible for monitoring Earth’s rotation and deciding on leap second adjustments.

Scientific Significance
While the shorter days do not pose any danger, they challenge scientists and timekeepers. Precise timekeeping is critical for navigation, communication, and scientific research. Understanding the factors behind Earth’s rotation changes helps improve models of Earth’s interior and its interaction with the Moon and Sun.

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Photocatalytic Hydrogen Peroxide Production Using Mo-DHTA COF

 

Recent advances in photocatalysis have led to a breakthrough method for producing hydrogen peroxide (H₂O₂) using sunlight and water. Researchers have developed a novel material called Mo-DHTA COF that can synthesise H₂O₂ efficiently and sustainably. This innovation promises to transform industries by providing a greener alternative to conventional hydrogen peroxide production.

Significance of Hydrogen Peroxide

Hydrogen peroxide is a vital chemical used in wound cleaning, water purification, fuel cells, and industrial processes. It decomposes into water and oxygen, making it environmentally friendly. However, traditional production methods are energy-heavy, costly, and polluting. A cleaner, more efficient synthesis method is needed to meet growing demand sustainably.

Limitations of Traditional Photocatalysts

Common photocatalysts like metal oxides, graphitic carbon nitride, polymers, and metal-organic frameworks have drawbacks. These include wide band gaps limiting light absorption, poor stability, and low electron mobility. Such factors reduce their efficiency in producing hydrogen peroxide under sunlight.

Advantages of Covalent Organic Frameworks (COFs)

COFs are porous, crystalline materials with high surface areas and tunable properties. They absorb visible light better due to narrower band gaps and show good photostability. Yet, COFs often lack sufficient active sites and effective charge transport, restricting their catalytic performance.

Metal-Embedded COFs (M-COFs) and Mo-DHTA COF

Embedding metal centres into COFs improves their catalytic activity and electron mobility. The Mo-DHTA COF integrates dimolybdenum paddlewheel units with α-hydroquinone linkers. This structure binds oxygen and facilitates its reduction when exposed to visible light. The material acts as a molecular scaffold, with metal atoms serving as solar-driven catalytic sites.

Photocatalytic Mechanism

Under sunlight, Mo-DHTA COF generates excitons that trigger electron transfer. Electrons reduce oxygen molecules to superoxide radicals. These radicals react with protons and electrons to form hydrogen peroxide. This process works efficiently in various solvents, including pure water, ethanol, and benzyl alcohol.

Performance and Stability

Mo-DHTA COF shows excellent photocatalytic efficiency and can be recycled multiple times without losing activity. Its robustness and stability make it suitable for long-term use in industrial applications. This durability is a key advantage over many existing photocatalysts.

Industrial and Environmental Applications

This technology offers greener routes for producing hydrogen peroxide for pharmaceuticals, healthcare, and environmental remediation. It can also impact materials science by aiding water splitting, carbon dioxide reduction, and synthesis of valuable chemicals. The approach reduces reliance on fossil fuels and hazardous chemicals.

Future Directions

Research will focus on optimising M-COF structures and exploring other metal centres to enhance performance. Scaling up the technology for industrial use is a priority. Further innovations may broaden the scope of green chemical synthesis beyond hydrogen peroxide.

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Interstellar Comet

 

NASA announced the discovery of a rare interstellar comet named 3I/ATLAS passing through our solar system. This is only the third confirmed comet from beyond our solar system. Its unusual trajectory and high velocity confirm it is a visitor from another star system. Scientists worldwide are closely observing this unique object to gain vital information about the formation of planetary systems beyond our own.

What Is an Interstellar Comet?

An interstellar comet originates outside the solar system. Unlike typical comets orbiting the Sun, it travels on a hyperbolic path. This means it is not gravitationally bound to the Sun and will leave the solar system after its flyby. These comets are composed of ice, dust, and rock, similar to regular comets. They are believed to have been ejected from their original planetary systems due to gravitational interactions. They drift through interstellar space for millions or billions of years before entering another star system.

Discovery of 3I/ATLAS

The interstellar comet 3I/ATLAS was first detected on 1 July 2025 by the ATLAS (Asteroid Terrestrial-impact Last Alert System) survey telescope in Chile. It was later confirmed through archived data from multiple observatories, including the Zwicky Transient Facility in California. The comet came from the direction of the constellation Sagittarius. Its discovery marked only the third time such an object has been observed passing through our solar system.

Trajectory and Speed

3I/ATLAS travels at an extraordinary speed of approximately 60 kilometres per second. It is currently more than 400 million miles (about 4.5 astronomical units) away from the Sun. The comet’s path is hyperbolic, indicating it will not orbit the Sun but pass through once. It will reach its closest approach to the Sun near 1.4 astronomical units, just inside Mars’s orbit, around 30 October 2025. After that, it will continue its journey back into interstellar space.

Scientific Importance

This comet offers a rare chance to study material from outside our solar system. Its composition and behaviour can provide clues about the formation and evolution of other planetary systems. Observations of gas and dust emissions help scientists compare interstellar comets with native solar system comets. Such studies enhance understanding of cosmic chemistry and planetary formation processes across the galaxy.

Visibility and Safety

3I/ATLAS is currently visible to ground-based telescopes and is expected to remain so until September 2025. It will then move too close to the Sun to be observed until early December when it reappears on the other side. NASA confirms that the comet poses no threat to Earth. It will maintain a safe distance of at least 1.6 astronomical units (about 150 million miles) throughout its passage.
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Teak Leaf Extract for Laser Safety

 

Recent advancements in laser technology necessitate protective measures for both human eyes and sensitive optical devices. Researchers at the Raman Research Institute (RRI) have discovered that teak leaf extract, a byproduct typically discarded, holds potential for optical safety applications. This extract is rich in anthocyanins, which exhibit nonlinear optical properties when exposed to light.

Teak Leaf Properties

Teak leaves, derived from the Tectona grandis tree, are often viewed as agricultural waste. However, they contain natural pigments that give them their distinctive reddish-brown colour. These pigments have been found to possess remarkable nonlinear optical (NLO) properties, making them suitable for applications in optics. The research marks the potential of these natural materials as eco-friendly alternatives to synthetic optical components.

Extraction Process

The extraction process involves several steps. First, the leaves are dried and ground into a powder. This powder is then soaked in solvents to extract the pigments. The mixture undergoes ultrasonication and centrifugation to purify the extract. The result is a vibrant dye that can be tested for its optical properties.

Optical Testing

The RRI team conducted experiments using green laser light on the extracted dye. They tested it under two conditions – continuous wave and pulsed light. The dye demonstrated reverse saturable absorption (RSA), meaning it absorbed more light at higher intensities. This property is crucial for developing laser safety equipment, as it allows the dye to protect against harmful laser radiation.

Environmental Benefits

The use of teak leaf extract presents several environmental advantages. Unlike traditional optical limiters that rely on costly and potentially harmful materials, teak leaf dye is inexpensive, biodegradable, and compostable. This aligns with the growing demand for sustainable materials in technology. The research supports the idea of utilising natural resources to create effective photonic materials.

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Best Paper Award

 

Best Paper Award The Best Paper Award is presented to authors whose research publications demonstrate exceptional originality, methodological rigor, and potential for high impact. It recognizes excellence in scientific writing, innovation in theory or application, and the contribution of new knowledge to the academic and research community. 

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Polycyclic Aromatic Hydrocarbons Persistence in Space

 

Polycyclic aromatic hydrocarbons (PAHs) are flat molecules made of carbon and hydrogen. They are abundant in space and may have played a key role in the origin of life on Earth. Recent research has solved a long-standing puzzle about how certain PAHs survive harsh space conditions, particularly in the Taurus Molecular Cloud 1 (TMC1), a region 430 light-years away.

PAHs and Their Cosmic Significance

PAHs form about 20% of carbon in interstellar space. Their flat ring-like structure makes them stable and able to endure space radiation. Scientists believe meteors carrying PAHs helped seed early Earth with organic molecules.

The Mystery of PAHs in Taurus Molecular Cloud 1

TMC1 is rich in gas, dust, and plasma. It contains many small, closed-shell PAHs, molecules with paired electrons, which should break down under intense starlight. Yet, these PAHs persist in larger numbers than predicted. This contradicts earlier theories that expected rapid disintegration from radiation exposure.

Research on Indenyl Cation (C9H7+) and Cooling Mechanism

A team from Australia, Sweden, and the UK studied the indenyl cation, a charged fragment of indene (C9H8). They discovered these ions cool down quickly, preventing their destruction. This cooling occurs through a process called recurrent fluorescence, where the molecule emits light by electron transitions, releasing energy step-by-step.

Experimental Setup and Observations

Scientists used DESIREE, a facility in Stockholm with ion-storage rings cooled below –260ºC. Ions injected into the ring travel without collisions for minutes. By measuring neutral fragments from ion breakups, researchers tracked the rate of ion dissociation. The indenyl cation showed a faster cooling rate than other PAH ions, confirming an efficient energy loss mechanism.

Modelling Energy Loss in PAHs

The team created a model balancing three energy loss pathways – dissociation (bond breaking), infrared emission (vibrational energy loss), and recurrent fluorescence (light emission). Simulations including recurrent fluorescence matched experimental data closely. This confirmed that small PAHs can cool efficiently and avoid decomposition in space.

Implications for Astrochemistry and Planet Formation

This discovery refines models of PAH growth from small fragments to larger molecules. It explains how these molecules accumulate in clouds like TMC1. Such PAHs could contribute prebiotic carbon to forming planets. Recent radioastronomy has also detected many small PAHs, denoting their importance in cosmic chemistry.

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In recent developments, the Defence Research & Development Organisation (DRDO) has successfully conducted field trials of two advanced communication systems. The Defence Electronics Application Laboratory (DEAL) in Dehradun executed these trials in Joshimath, Uttarakhand. This initiative signifies a strong commitment to indigenous technologies that boost national security.

Overview of the Communication Systems

The two systems tested are the Software Defined Radio (SDR) Manpack and the Compact Transhorizon Communication System (CTCS). Both systems are designed to improve communication capabilities in challenging environments. The SDR Manpack allows for secure communication across various frequency bands, while the CTCS ensures high data rate connectivity in remote areas lacking civil communication infrastructure.

Objectives of the Trials

The primary aim of the trials was to validate the performance of the SDR and CTCS under real-world conditions. This involved testing in diverse terrains and operational environments. The focus was on meeting user-defined operational benchmarks established by various security agencies.

Collaboration with Security Agencies

The trials were conducted in collaboration with the Ministry of Home Affairs and Central Armed Police Forces (CAPFs). Officers from several paramilitary forces, including ITBP, SSB, BSF, and CRPF, participated in the trials. This collaboration ensured that the systems were rigorously tested and evaluated by end-users.

Technical Specifications of SDR and CTCS

The SDR is a secure system capable of supporting legacy communication while providing digital voice and data communication. It operates across multiple channels and frequency bands, making it versatile for naval and tactical communications. The CTCS, on the other hand, is designed for large hop terrestrial backhaul communication, enabling connectivity in areas where traditional communication networks are unavailable.

Significance for National Security
The successful trials of these systems reinforce DRDO’s commitment to developing indigenous solutions for national security. The ability to maintain secure and reliable communication in remote and challenging environments is crucial for effective military and paramilitary operations.

Future Implications
The development of such communication systems has far-reaching implications. It reduces dependence on foreign technology and enhances the operational capabilities of Indian security forces. As these systems are integrated into national defence strategies, they are expected to improve situational awareness and response times.

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