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Guardrails for Responsible AI

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Clarivate explores how responsible AI guardrails and content filtering can support safe, ethical use of generative AI in academic research — without compromising scholarly freedom. As AI becomes embedded in research workflows, this blog outlines a suggested path to shaping industry standards for academic integrity, safety, and innovation.

Generative AI has opened new possibilities for academic research, enabling faster discovery, summarization, and synthesis of knowledge, as well as supporting the scholarly discourse. Yet, as these tools become embedded in scholarly workflows, the segment faces a complex challenge: how do we balance responsible AI use and the prevention of harmful outputs with the need to preserve academic freedom and research integrity?

This is an industry-wide problem that affects every organization deploying Large Language Models (LLMs) in academic contexts. There is no simple solution, but there is a pressing need for collaboration across vendors, libraries, and researchers to address it.

There are different ways to technically address the problem. The two most important ones are guardrails and content filtering.

Guardrails

Guardrails are proactive mechanisms designed to prevent undesired behaviour from the model. They are often implemented at a deeper level in the system architecture and can, for example, include instructions in an application’s system prompt to steer the model away from risky topics or to make sure that the language is suitable for the application where it’s being used.

The goal of guardrails is to prevent the model from ever generating harmful or inappropriate content in the first place or misbehaving, with the caveat that the definition of what constitutes ‘inappropriate’ is highly subjective and often dependent on cultural differences and context.

Guardrails are critical for security and compliance, but they can also contribute to over-blocking. For instance, defences against prompt injection — where malicious instructions are hidden in user input — may reject queries that appear suspicious, even if they are legitimate academic questions. It can block certain types of outputs (e.g., hate speech, self-harm advice) or exclude the training data from the output. This tension between safety and openness is one of the hardest problems to solve.

The guardrails used in our products play a very significant role in shaping the model’s output. For example, we carefully design the prompts that guide the LLM, instructing it to rely exclusively on scholarly sources through a Retrieval-Augmented Generation (RAG) architecture or preventing the tools from answering non-scholarly questions such as “Which electric vehicle should I buy”? These techniques limit products’ reliance on the LLM broader training data, significantly minimizing the risk of problematic content impacting user results.

Content filtering

Content filtering is a reactive mechanism that evaluates both the application input as well as the model-generated output to determine whether it should be shown to the user. It uses automated classification models to detect and block (or flag) unwanted or harmful content. Essentially, content filters are processes that can block content from getting to the LLM, as well as block the LLMs responses from being delivered. The goal of content filtering is to catch and block inappropriate content that might slip through the model’s generation process.

However, content filtering is not a single switch; it is a multi-layered process designed to prevent harmful, illegal, or unsafe outputs. Here are the main steps in the pipeline where filtering occurs:

  • At the LLM level (e.g. GPT, Claude, Gemini, Llama, etc.)

Most modern LLM stacks include a provider-side safety layer that evaluates both the prompt (input) and the model’s draft answer (output) before the application ever sees it. It’s designed to reduce harmful or illegal uses (e.g., violence, self-harm, sexual exploitation, hateful conduct, or instructions to commit wrongdoing), but this same functionality can unintentionally suppress legitimate, research-relevant topics — particularly in history, politics, medicine, and social sciences.

  • At the LLM cloud provider level (e.g., Azure, AWS Bedrock, etc.)

Organizations, vendors and developers often use LLMs APIs via cloud providers like Azure or Bedrock when they need to control where their data is processed, meet strict compliance and privacy requirements like GDPR, and run everything within private network environments for added security.

These cloud providers implement baseline safety systems to block prompts or outputs that violate their acceptable use policies. These filters are often broad, covering sensitive topics such as violence, self-harm, or explicit content. While essential for safety, these filters can inadvertently block legitimate academic queries — such as research on war crimes or historical atrocities.

This can result in frustrating messages alerting users that the request failed – even when the underlying content is academically valid. At Clarivate, while we recognize these tools may be imperfect, we continue to believe they are essential to incorporate in our arsenal and enable us to balance the benefits with the risks when using this technology. Our commitment to building responsible AI remains steadfast as we continue to monitor and adapt our dynamic controls based on our learnings, feedback and cutting-edge research.

Finding the right safety level

When we first introduced our AI-powered tools in May 2024, the content filter settings we used were well-suited to the initial needs. However, as adoption of these tools significantly increased, we found that the filters could sometimes be over-sensitive, with users sometimes encountering errors when exploring sensitive or controversial topics, even when the intent was clearly scholarly.

In response, we have adjusted our settings, and early results are promising: Searches previously blocked (e.g., on genocide or civil rights history) now return results, while genuinely harmful queries (e.g., instructions for building weapons) remain blocked.

The central Clarivate Academic AI Platform provides a consistent framework for safety, governance, and content management across all our tools. This shared foundation ensures a uniform standard of responsible AI use. Because content filtering is applied at the model level, we validate any adjustments carefully across solutions, rolling them out gradually and testing against production-like data to maintain reliability and trust.

Our goal is to strike a better balance between responsible AI use and academic freedom.

Working together to balance safety and openness – a community effort

Researchers expect AI tools to support inquiry, not censor it. Yet every vendor using LLMs faces the same constraints: provider-level filters, regulatory requirements, and the ethical imperative to prevent harm.

There is no silver bullet. Overly strict filters undermine research integrity; overly permissive settings risk abuse. The only way forward is collaboration — between vendors, libraries, and the academic community — to define standards, share best practices, and advocate for provider-level flexibility that recognises the unique needs of scholarly environments.

At Clarivate, we are committed to transparency and dialogue. We’ve made content filtering a key topic for our Academia AI Advisory Council and are actively engaging with customers to understand their priorities. But this conversation must extend beyond any single company. If we want AI to truly serve scholarship, we need to push this topic with academic AI in mind, balancing safety and openness within the unique context of scholarly discourse. With this goal, we are creating an Academic AI working group that will help us navigate this and other challenges originating from this new technology. If you are interested in joining this group or know someone who might be, please contact us at academiaai@clarivate.com.

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Spatially-Aware Image Focus for Visual Reasoning


View a PDF of the paper titled SIFThinker: Spatially-Aware Image Focus for Visual Reasoning, by Zhangquan Chen and 6 other authors

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Abstract:Current multimodal large language models (MLLMs) still face significant challenges in complex visual tasks (e.g., spatial understanding, fine-grained perception). Prior methods have tried to incorporate visual reasoning, however, they fail to leverage attention correction with spatial cues to iteratively refine their focus on prompt-relevant regions. In this paper, we introduce SIFThinker, a spatially-aware “think-with-images” framework that mimics human visual perception. Specifically, SIFThinker enables attention correcting and image region focusing by interleaving depth-enhanced bounding boxes and natural language. Our contributions are twofold: First, we introduce a reverse-expansion-forward-inference strategy that facilitates the generation of interleaved image-text chains of thought for process-level supervision, which in turn leads to the construction of the SIF-50K dataset. Besides, we propose GRPO-SIF, a reinforced training paradigm that integrates depth-informed visual grounding into a unified reasoning pipeline, teaching the model to dynamically correct and focus on prompt-relevant regions. Extensive experiments demonstrate that SIFThinker outperforms state-of-the-art methods in spatial understanding and fine-grained visual perception, while maintaining strong general capabilities, highlighting the effectiveness of our method. Code: this https URL.

Submission history

From: Zhangquan Chen [view email]
[v1]
Fri, 8 Aug 2025 12:26:20 UTC (5,223 KB)
[v2]
Thu, 14 Aug 2025 10:34:22 UTC (5,223 KB)
[v3]
Sun, 24 Aug 2025 13:04:46 UTC (5,223 KB)
[v4]
Tue, 16 Sep 2025 09:40:13 UTC (5,223 KB)



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An Aerial Remote Sensing Foundation Model With Affine Transformation Contrastive Learning


View a PDF of the paper titled RingMo-Aerial: An Aerial Remote Sensing Foundation Model With Affine Transformation Contrastive Learning, by Wenhui Diao and 10 other authors

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Abstract:Aerial Remote Sensing (ARS) vision tasks present significant challenges due to the unique viewing angle characteristics. Existing research has primarily focused on algorithms for specific tasks, which have limited applicability in a broad range of ARS vision applications. This paper proposes RingMo-Aerial, aiming to fill the gap in foundation model research in the field of ARS vision. A Frequency-Enhanced Multi-Head Self-Attention (FE-MSA) mechanism is introduced to strengthen the model’s capacity for small-object representation. Complementarily, an affine transformation-based contrastive learning method improves its adaptability to the tilted viewing angles inherent in ARS tasks. Furthermore, the ARS-Adapter, an efficient parameter fine-tuning method, is proposed to improve the model’s adaptability and performance in various ARS vision tasks. Experimental results demonstrate that RingMo-Aerial achieves SOTA performance on multiple downstream tasks. This indicates the practicality and efficacy of RingMo-Aerial in enhancing the performance of ARS vision tasks.

Submission history

From: Tong Ling [view email]
[v1]
Fri, 20 Sep 2024 10:03:14 UTC (36,295 KB)
[v2]
Mon, 31 Mar 2025 09:07:12 UTC (30,991 KB)
[v3]
Thu, 29 May 2025 14:03:42 UTC (13,851 KB)
[v4]
Tue, 16 Sep 2025 16:47:46 UTC (15,045 KB)



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