कृत्रिम बुद्धिमत्ता
वैज्ञानिक अनुसंधान में AI: उत्पादकता वृद्धि बनाम गुणवत्ता जोखिम
AI एक अनुसंधान सहायक के रूप में
AI कई वैज्ञानिक क्षेत्रों के लिए एक वास्तविक क्रांति है, जो डेटा की प्रोसेसिंग और वास्तविक जीवन की सामग्री और स्थितियों के मॉडलिंग को इस तरह संभव बनाता है जो कुछ साल पहले तक सबसे शक्तिशाली सुपरकंप्यूटर भी नहीं कर सकते थे।
Recent examples include diverse forms of AI being used for:
- परमाणु संलयन रिएक्टरों के लिए नई सामग्री ढूँढना।
- स्पेस टेलीस्कोप की छवि स्पष्टता को पुनर्स्थापित करना।
- धातु 3D प्रिंटिंग प्रक्रियाओं का अनुकूलन।
- सौर कोशिकाओं, हाइड्रोजन इलेक्ट्रोकैटलिस्ट, सुपरहार्ड सामग्री, पॉलीमर और सॉलिड-स्टेट इलेक्ट्रोलाइट के लिए नई सामग्री की खोज।
These applications usually rely on highly specialized AI models, finely trained to examine a specific class of crystal or process a unique set of images.
However, when we talk about AI, the broader public usually thinks of generalist LLMs (Large Language Models). These are currently used mostly for writing and improving text, as well as performing advanced, readable queries compared to traditional search engines.
In theory, this should apply not just to students’ essays, bad poetry, and PowerPoint presentations, but also to scientific research and published papers.
This, however, can be a double-edged sword, as explained in a recent analysis published in the prestigious scientific review Science1, titled “बड़े भाषा मॉडल के युग में वैज्ञानिक उत्पादन”.
In this analysis, researchers at the University of California and Cornell University observed the output of scientists utilizing LLMs compared to their previous work. They discovered that while using LLMs can improve the quality of scientific papers, it also creates a higher volume of lower-quality research, exacerbating existing problems in academia.
सारांश
AI तेजी से वैज्ञानिक अनुसंधान को लेखन, खोज और उत्पादकता को तेज करके पुनः आकार दे रहा है। हालांकि, वही उपकरण अकादमी को निम्न-गुणवत्ता वाले शोध से भर देने का जोखिम रखते हैं, जिससे पारंपरिक मूल्यांकन मीट्रिक और पीयर रिव्यू सिस्टम पर चुनौती आती है।
वैज्ञानिक अनुसंधान पत्रों में AI उपयोग का पता लगाना
The first challenge is determining how prevalent LLM usage is in scientific writing and who is using it.
Unsurprisingly, this is not data that researchers spontaneously admit to, as the tools are still new and can be error-prone, especially regarding technical data or niche topics.
The researchers compiled more than 2 million papers from large scientific databases like arXiv, bioRxiv, and the Social Science Research Network (SSRN), dated from जनवरी 2018 through जून 2024.
They then compared papers posted before 2023—presumed to be written by humans—against AI-generated text.
Using this data, they developed a model to detect AI usage. With this tool, they determined with reasonable accuracy which scientists are using LLMs and when they began. They then tracked the publication volume of those scientists before and after adopting the tools, and whether those papers were subsequently accepted by scientific journals.
वैज्ञानिक अनुसंधान पर AI का प्रभाव
स्क्रॉल करने के लिए स्वाइप करें →
| AI प्रभाव क्षेत्र | सकारात्मक प्रभाव | जोखिम |
|---|---|---|
| पत्र लेखन | स्पष्टता और गति में सुधार | निम्न-गुणवत्ता वाले आउटपुट की अधिक मात्रा |
| साहित्य खोज | व्यापक, नवीनतम शोध का एक्सपोज़र | हालिया या अ-उद्धृत कार्य की ओर पक्षपात |
| शैक्षणिक करियर | उच्च उत्पादकता मेट्रिक्स | मेट्रिक्स वास्तविक कौशल से अलग हो जाते हैं |
उच्च उत्पादकता
The first conclusion is that using LLMs boosts scientists’ productivity, at least when measured by the number of publications.
On arXiv, scientists flagged as using LLMs posted roughly one-third more papers than those who did not appear to use AI. On bioRxiv and SSRN, the increase exceeded 50%.
Given that the “publish or perish” culture dictates the career paths of most scientists, this volume increase has a serious impact on career trajectories.
Another insight is that the boost was stronger for scientists assumed to be non-native English speakers.
For example, researchers affiliated with Asian institutions posted between 43.0% and 89.3% more papers after the detector suggested they began using LLMs.
This makes sense; many scientists are technically brilliant and capable of reading English (a requirement in modern academia) but may struggle to construct clear, elegant sentences in a second language.
Widespread use of LLMs could level the playing field for non-native speakers, helping high-quality research gain international recognition regardless of the author’s linguistic fluency.
वैज्ञानिक ज्ञान की बेहतर खोज
LLMs का उपयोग विशिष्ट विषय से संबंधित पत्र खोजने के लिए भी किया जा सकता है, विशेष AI जैसे Elicit, ResearchRabbit, या Scite का उपयोग करके।
A significant portion of scientific research consists of finding and reading other papers to deduce information or identify experimental protocols that can be reused in new contexts.
AIs generally favor more recent papers and place less weight on citation counts compared to traditional search engines. As such, they provide an alternative for scientists looking for new ideas or less-discussed experiments.
“People using LLMs are connecting to more diverse knowledge, which might be driving more creative ideas.”
Keigo Kusumegi, a doctoral student at Cornell University
This hypothesis could be tested in the future by checking if papers written with AI assistance possess more diverse bibliographies or are more innovative and interdisciplinary.
विज्ञान और अकादमी में AI एक नया मुद्दा
In recent years, scientific research—especially within the social sciences—has experienced a crisis of replicability.
Because the results of many papers cannot be reproduced by other researchers, otherwise serious-looking studies may be flawed or even fraudulent. इसे विज्ञान के लिए एक “अस्तित्वगत संकट” कहा गया है।
Historically, complex writing—including longer sentences and sophisticated vocabulary—has been a heuristic for higher-quality research. While not foolproof, it helped distinguish expertly written research from shoddy analysis.
In contrast, papers written with AI assistance are currently less likely to be accepted by journals.
Overall, this threatens to further decouple the metric of “papers published” from the actual talent of a researcher. Editors and reviewers may struggle to identify the most valuable submissions, especially as AI becomes increasingly efficient and human-like.
Lastly, massive volumes of “slop”—bogus but plausible-looking research papers—could be generated via AI. This risk is not limited to social media; it is a significant problem for scientific research, where reviewers’ time was already a scarce commodity before the emergence of LLMs.
भविष्य में वैज्ञानिक अनुसंधान के लिए AI का क्या अर्थ है
Because AI is a tool, researchers must learn to use it effectively. It is nearly impossible to ban LLMs from research labs, and detection will only become harder.
Adaptation and the productive use of AI in scientific writing will be the defining topic moving forward.
“Already now, the question is not, ‘Have you used AI?’ The question is, ‘How exactly have you used AI, and was it helpful?'”
Hiring practices in science may benefit from a return to qualitative metrics, such as in-depth interviews and technical tests, rather than relying solely on publication volume.
Similarly, reviewers and scientific journals must adapt. Potentially, systems that verify if a submission originates from a legitimate research lab before analysis may be required to block the mass production of fake papers.
Ultimately, a deep understanding of the technical elements of a paper, rather than linguistic elegance, will become the foremost element in judging quality.
AI नवाचार में निवेश
निवेशक सारांश
AI-driven research productivity may not translate directly into higher-quality outcomes. Long-term winners will be companies enabling compute, infrastructure, and validation—not just content generation. Nvidia (NVDA ) remains central to this thesis.
Nvidia
Nvidia ने गेमर्स को लक्षित करने वाली ग्राफिक्स कार्ड कंपनी से विश्व की सबसे बड़ी कंपनी तक विकास किया है, क्योंकि यह पूरे तकनीकी उद्योग को AI हार्डवेयर प्रदान करने में अपने केंद्रीय भूमिका के कारण है।
As a pioneer in AI-dedicated hardware, Nvidia was the first to help researchers leverage these tools. “CUDA,” a general-purpose programming interface for Nvidia’s GPUs, opened the door for uses beyond gaming, paving the road for today’s AI applications.
“Researchers realized that by buying this gaming card called GeForce, you add it to your computer, you essentially have a personal supercomputer.
Molecular dynamics, seismic processing, CT reconstruction, image processing—a whole bunch of different things.
It is likely that Nvidia hardware, either directly or incorporated into the clouds of Microsoft (MSFT ), Google, Meta, and OpenAI, will remain the hardware of choice for researchers.
AI capex is expected 2025 में $200 बिलियन तक पहुँचने की उम्मीद है, on top of ever-growing cumulative spending by the largest tech companies. Other electronic components, such as high-performance RAM, are now in shortage as Nvidia chip production ramps up.
While scientific research may not represent the bulk of AI compute compared to consumer or B2B uses, it could become the most impactful long-term driver, promising new alloys, medicines, and scientific methodologies.
उल्लेखित अध्ययन
1. Keigo Kusumegi, Xinyu Yang, Paul Ginsparg, Mathijs de Vaan, Toby Stuart, and Yian Yin. बड़े भाषा मॉडल के युग में वैज्ञानिक उत्पादन।Science. 18 Dec 2025. Vol 390, Issue 6779 pp. 1240-1243. DOI: 10.1126/science.adw3000











