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@@ -13,7 +13,7 @@ <h1>Linderman Lab</h1>
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<h2>Stanford University</h2>
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<p>
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Welcome to the Linderman Lab! We belong to the <ahref="https://statistics.stanford.edu/">Statistics Department</a> and the <ahref="https://neuroscience.stanford.edu/">Wu Tsai Neurosciences Institute</a> at Stanford University.
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Our work bridges<strong>computational neuroscience</strong>, <strong>artificial intelligence</strong>, and <strong>Bayesian statistics</strong>, developing models and algorithms for complex data. Check out some of our research
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Our work blends<strong>computational neuroscience</strong>, <strong>artificial intelligence</strong>, and <strong>Bayesian statistics</strong> to develop models and algorithms for complex data. Check out some of our research
Modern recording and tracking technologies let us measure thousands of neurons and quantify behavior with unprecedented precision, but the resulting data are noisy, high-dimensional time series.
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We develop state space models tailored to this challenge, like the rSLDS (<ahref="#linderman2017recurrent">Linderman et al., 2017</a>), gpSLDS (<ahref="#hu2024modeling">Hu et al., 2024</a>), and Keypoint MoSeq (<ahref="#weinreb2024keypoint">Weinreb et al., 2024</a>).
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Working closely with experimental collaborators, we have used tools like these to study neural dynamics underlying emotional states (<ahref="#nair2023approximate">Nair et al., 2023</a>; <ahref="#vinograd2024intrinsic">Vinograd et al., 2024</a>), the neural basis of natural behavior (<ahref="#markowitz2023spontaneous">Markowitz et al., 2023</a>), and how behavior changes throughout the lifespan (<ahref="#bedbrook2026lifelong">Bedbrook et al., 2025</a>).
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We also build open-source software — including <ahref="https://github.com/lindermanlab/ssm">SSM</a> and <ahref="https://probml.github.io/dynamax/">Dynamax</a> (<ahref="#linderman2024dynamax">Linderman et al., 2024</a>) — to make these tools broadly accessible.
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We also build open-source software — including <ahref="https://github.com/lindermanlab/ssm">SSM</a> and <ahref="https://probml.github.io/dynamax/">Dynamax</a> (<ahref="#linderman2025dynamax">Linderman et al., 2025</a>) — to make these tools broadly accessible.
Deep state space models have seen a resurgence within machine learning, and they are now widely used for sequential data like language, audio, and video.
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We helped pioneer this area with S5 (<ahref="#smith2023simplified">Smith et al., 2023a</a>,<ahref="#smith2023convolutional">b</a>), and we continue to develop theory and algorithms for parallelizing deep SSMs with nonlinear dynamics (<ahref="#gonzalez2024towards">Gonzalez et al., 2024</a>, <ahref="#gonzalez2025predictability">2025</a>, <ahref="#gonzalez2026unifying">2026</a>).
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We have studied cost-efficient collaboration between on-device and cloud models (<ahref="#narayan2025minions">Narayan et al., 2025</a>), information-theoretic principles for agentic system design (<ahref="#he2026information">He et al., 2026</a>), and informed correctors for discrete diffusion models (<ahref="#zhao2025informed">Zhao et al., 2025</a>).
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Beyond SSMs, we have also developed cost-efficient collaboration protocols between on-device and cloud models (<ahref="#narayan2025minions">Narayan et al., 2025</a>), information-theoretic principles for agentic system design (<ahref="#he2026information">He et al., 2026</a>), and informed correctors for discrete diffusion models (<ahref="#zhao2025informed">Zhao et al., 2025</a>).
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