← Latest papers
🤖 AI

Authoring and Management of Transparent Research Integrity Assessments of Randomised Clinical Trial Publications Using LLM-assisted Tools and Provenance Knowledge Graphs

This paper introduces INSPECT-AI, an LLM-assisted interactive tool and its associated RIPE-KG knowledge graph, designed to streamline and standardize the transparent assessment of research integrity in Randomised Clinical Trial publications by leveraging the INSPECT-SR framework and the RIPE-O ontology.

Original authors: Milan Markovic, Goutham Indukuri, Somayajulu Sripada, Colby J. Vorland, Jack Wilkinson, Clare Robertson, Mark Bolland, Andrew Grey, Miriam Brazzelli, Alison Avenell

Published 2026-08-10
📖 3 min read☕ Coffee break read

Original authors: Milan Markovic, Goutham Indukuri, Somayajulu Sripada, Colby J. Vorland, Jack Wilkinson, Clare Robertson, Mark Bolland, Andrew Grey, Miriam Brazzelli, Alison Avenell

Original paper licensed under CC BY 4.0 (http://creativecommons.org/licenses/by/4.0/). This is an AI-generated explanation of the paper below. It is not written or endorsed by the authors. For technical accuracy, refer to the original paper. Read full disclaimer

Imagine the world of science as a massive, bustling library where researchers constantly write new books about how to keep people healthy. For years, doctors and policymakers have relied on a special kind of "best-of" collection called a Systematic Review. Think of this as a super-powered librarian who reads hundreds of individual studies, checks them for errors, and combines their findings to create a single, trusted guide for medical care. But here's the catch: sometimes, the original books in the library have been tampered with. Maybe the data was faked, the experiments were rigged, or the authors hid bad news. If the super-librarian accidentally includes these "tainted" books in the final guide, the advice given to doctors could be wrong, potentially hurting patients. This is the problem of Research Integrity: making sure the raw materials of science are honest and trustworthy.

To solve this, scientists have created checklists—like a detective's magnifying glass—to spot these red flags. However, checking every single book manually is incredibly slow and tiring, and different detectives might disagree on what counts as a "suspicious" clue. Recently, a new type of digital helper called a Large Language Model (LLM) has emerged. You can think of an LLM as a super-fast, super-read robot that can scan text and spot patterns in seconds. But, like any robot, it can make mistakes or get confused, so it needs a human to double-check its work. The big question is: how do we keep a perfect, unchangeable record of exactly how a human and a robot worked together to decide if a study is safe to use?

This is where the paper you're about to read comes in. The authors, a team of computer scientists and medical experts, have built a new digital tool called INSPECT-AI. It's like a high-tech detective station that helps humans check clinical trials for honesty. But the real magic isn't just the tool itself; it's the "digital footprint" it leaves behind. The team created a special map called a Knowledge Graph (a giant, interconnected web of facts) and a rulebook called an Ontology (a shared language for describing how decisions were made). They used these to record 140 different investigations into 95 medical studies.

What they found is fascinating and a little messy. The robot (INSPECT-AI) and the human detectives often agreed, but not always. In fact, they disagreed in about 13.6% of the specific questions they asked. Sometimes the robot was too quick to flag a problem, and sometimes the human needed to dig deeper to see that the robot was wrong. The team also noticed that humans didn't always agree with each other, especially when trying to figure out if a study was registered before it started (a tricky detail that requires deep knowledge). The paper suggests that we can't just let the robot decide everything, nor can we rely on humans to do it all alone. Instead, we need a system that records every step of the investigation—who looked at what, what the robot guessed, and why the human changed their mind. By publishing these "provenance traces" (the history of the investigation) in an open, searchable graph, the team hopes to make the whole process of checking science more transparent, faster, and less prone to human error. They haven't solved the problem of fake science, but they've built a better flashlight and a better notebook for the people trying to find it.

Drowning in papers in your field?

Get daily digests of the most novel papers matching your research keywords — with technical summaries, in your language.

Try Digest →