Orthogonal and Parametrized Multi-Attribute Steering of LLMs

Remy Ogasawara; Cullen Anderson; Narmeen Fatimah Oozeer; Foad Namjoo; Amir Abdullah; Jens Kristian Refsgaard Schou; Jeff M. Phillips

arXiv · 2610.37517

Orthogonal and Parametrized Multi-Attribute Steering of LLMs

Remy Ogasawara·Cullen Anderson·Narmeen Fatimah Oozeer·Foad Namjoo·Amir Abdullah·Jens Kristian Refsgaard Schou·Jeff M. Phillips

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Abstract

Activation steering offers an effective and efficient way to modify an LLM's behavior at inference time. However, it remains unclear how to apply steering such that the signal is consistently strong and the steering strength has a universally interpretable meaning. We address this first by identifying the most steerable interval for each steering vector and rescaling the steering range accordingly. Building on this, we introduce a more interpretable method for steering, called parameterized steering which instead of pushing activations in a direction, it sets them at the desired trait strength. Next, with multi-trait steering, we find that naively combining vectors causes them to interfere with one another. In response, we develop a method to orthogonalize the vectors; it decouples these traits, allowing a model to exhibit one behavior without inducing the others, thus enabling multiple traits to be steered simultaneously.

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BibTeX RIS

Remy Ogasawara, Cullen Anderson, Narmeen Fatimah Oozeer, Foad Namjoo, Amir Abdullah, Jens Kristian Refsgaard Schou, Jeff M. Phillips. 2026-10-27. Orthogonal and Parametrized Multi-Attribute Steering of LLMs. https://arxiv.org/abs/2610.37517

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