Embodied AI & Robotics
Autonomous systems, planning and decision-making.
Research & engineering
I am a Computer Science undergraduate at Sichuan University. My research interests lie in embodied AI, world models, and intelligent agents, with a particular focus on how autonomous systems perceive, reason, and plan in complex environments.
I am interested in developing reliable and generalizable AI systems by combining structured reasoning, predictive modeling, and learning-based decision-making. I enjoy exploring fundamental research questions through both theoretical understanding and practical experimentation, and I am keen to pursue long-term research collaborations in these areas.
Autonomous systems, planning and decision-making.
State representations, predictive modeling and planning.
Feedback-driven agents, memory and robust execution.
Communication, coordination and structured reasoning.
Selected engineering work and independent studies. Methods, results and limitations are documented in the linked artifacts.
Contributed topology-aware mission planning and start/end replanning to a team’s powerline-inspection prototype, integrating inspection workflows, visualization and tests. The system operates at mission-planning and simulation level.
Independently audited action-ranking sensitivity and coupled sampling in an existing action-conditioned world model. The variance-reduction target was not met; navigation success was not evaluated.
Studied observation and action reliability in one controlled browser UI. Fresh observations prevented the tested stale actions, while later retries could undo an achieved goal.
Extended the upstream AgentHijack evaluation with within-step corruption timing controls. A descriptive study of three Chrome tasks examined how stale observations affect execution, with uncontrolled sampling limiting inference.
Used symbolic controls across ten archived worlds to distinguish evidence retention, reader behavior and observational ambiguity. This exploratory mechanism study is separate from the ExpeL/WebShop audit.
Independently reproduced the released GTD pipeline and audited communication-graph execution on the fork’s reproduction branch. Coordinate alignment improved graph fidelity without establishing downstream task-performance gains.
Audited whether inherited support can change solver-visible rule ranking without changing rule text. In one identical 36-rule state, resetting edited-rule support moved its rank from 2 to 15. Six independent compression builds provided a stochasticity control (15 dependent lexical comparisons). Across 50 paired WebShop tasks (100 episodes), successes were 0/50 with inherited support versus 1/50 after reset (exact paired p = 1.0); 96/100 episodes reached the cap. No reliable downstream benefit or equivalence was established.
Investigated whether executable world-model rollouts preserve parent state while returning the same values as full-copy execution. Implemented WCTR, a restricted Python runtime combining mutation witnesses, alias-aware selective copying and transactional rollback. It recorded zero parent/output contract failures across 33,692 checked transitions under the supported operations. Controlled results were mixed, and native completion tied across four isolation methods. These checks establish neither a general-purpose world-model learning algorithm nor improved downstream planning performance.
2026 IEEE International Conference on Bioinformatics and Biomedicine (IEEE BIBM 2026)
Regular Paper, Accepted
B.Eng. in Computer Science
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Received First Prize (Sichuan Division) in the Contemporary Undergraduate Mathematical Contest in Modeling (CUMCM).
Our paper was accepted as a regular paper at IEEE BIBM 2026.
Received the Meritorious Winner (M Award) distinction in the Mathematical Contest in Modeling (MCM).
I welcome research discussions and opportunities for long-term collaboration.
zhijingwu.cs@gmail.com