Arrow Research search

Author name cluster

Zunran Wang

Possible papers associated with this exact author name in Arrow. This page groups case-insensitive exact name matches and is not a full identity disambiguation profile.

2 papers
2 author rows

Possible papers

2

AAAI Conference 2023 Conference Paper

Mx2M: Masked Cross-Modality Modeling in Domain Adaptation for 3D Semantic Segmentation

  • Boxiang Zhang
  • Zunran Wang
  • Yonggen Ling
  • Yuanyuan Guan
  • Shenghao Zhang
  • Wenhui Li

Existing methods of cross-modal domain adaptation for 3D semantic segmentation predict results only via 2D-3D complementarity that is obtained by cross-modal feature matching. However, as lacking supervision in the target domain, the complementarity is not always reliable. The results are not ideal when the domain gap is large. To solve the problem of lacking supervision, we introduce masked modeling into this task and propose a method Mx2M, which utilizes masked cross-modality modeling to reduce the large domain gap. Our Mx2M contains two components. One is the core solution, cross-modal removal and prediction (xMRP), which makes the Mx2M adapt to various scenarios and provides cross-modal self-supervision. The other is a new way of cross-modal feature matching, the dynamic cross-modal filter (DxMF) that ensures the whole method dynamically uses more suitable 2D-3D complementarity. Evaluation of the Mx2M on three DA scenarios, including Day/Night, USA/Singapore, and A2D2/SemanticKITTI, brings large improvements over previous methods on many metrics.

ICRA Conference 2022 Conference Paper

TOPP-MPC-Based Dual-Arm Dynamic Collaborative Manipulation for Multi-Object Nonprehensile Transportation

  • Cheng Zhou
  • Maolin Lei
  • Longfei Zhao
  • Zunran Wang
  • Yu Zheng 0001

This paper presents a unified controller for dual-arm robot dynamic multi-object nonprehensile transportation. The controller is composed of time-optimal path parameteri-zation (TOPP) and model predictive control (MPC) and aimed at efficiently and dynamically transporting objects using the dual-arm robot under physical constraints while avoiding the slippage of the objects. A force tracking controller without using the force sensor is also proposed to achieve accurate contact force control between the arms and objects. Experiments on the real robot show the effectiveness of the proposed TOPP-MPC-based controller.

v2026.09.13