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Hongye Su

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5 papers
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5

ICRA Conference 2025 Conference Paper

A Data-Driven Aggressive Autonomous Racing Framework Utilizing Local Trajectory Planning with Velocity Prediction

  • Zhouheng Li
  • Bei Zhou 0005
  • Cheng Hu
  • Lei Xie 0007
  • Hongye Su

The development of autonomous driving has boosted the research on autonomous racing. However, existing local trajectory planning methods have difficulty planning trajectories with optimal velocity profiles at racetracks with sharp corners, thus weakening the performance of autonomous racing. To address this problem, we propose a local trajectory planning method that integrates Velocity Prediction based on Model Predictive Contouring Control (VPMPCC). The optimal parameters of VPMPCC are learned through Bayesian Optimization (BO) based on a proposed novel Objective Function adapted to Racing (OFR). Specifically, VPMPCC achieves velocity prediction by encoding the racetrack as a reference velocity profile and incorporating it into the optimization problem. This method optimizes the velocity profile of local trajectories, especially at corners with significant curvature. The proposed OFR balances racing performance with vehicle safety, ensuring safe and efficient BO training. In the simulation, the number of training iterations for OFR-based BO is reduced by 42. 86 % compared to the state-of-the-art method. The optimal simulation-trained parameters are then applied to a real-world F1TENTH vehicle without retraining. During prolonged racing on a custom-built racetrack featuring significant sharp corners, the mean projected velocity of VPMPCC reaches $\mathbf{9 3. 1 8 \%}$ of the vehicle's handling limits. The released code is available at https://github.com/zhouhengli/VPMPCC.

EAAI Journal 2024 Journal Article

Towards efficient filter pruning via adaptive automatic structure search

  • Xiaozhou Xu
  • Jun Chen
  • Zhishan Li
  • Hongye Su
  • Lei Xie

Filter pruning is a critical technique for compressing large convolutional neural networks, making it possible to deploy deep networks on resource-limited edge devices. However, previous pruning methods typically concentrate on removing filters with rule-of-thumb designs and empirically set the pruning rate per layer, which is prone to produce sub-optimal pruning. To address this issue, we develop a Filter Pruning method via Adaptive Automatic Structure Search (FP-AASS), which treats filter pruning as a structure optimization task. In FP-AASS, we employ the artificial bee colony algorithm to automatically search for the optimal pruned structure that meets the FLOPs and parameters constraints. The structure search process is divided into two stages through an additional adjustment phase to reduce the time consumption caused by the large search space. We also adopt adaptive batch normalization in the evaluation process to accelerate the search process and reinforce the relevance between the evaluation accuracy and the final converged accuracy achieved by the pruning candidates. Through extensive experiments, FP-AASS has been demonstrated to be an effective automatic filter pruning method. For instance, FP-AASS slims a standard ResNet-50 to a narrower one with 56. 8% FLOPs and 55. 0% parameters reduction with only a 1. 50% decrease in top-1 accuracy on ImageNet-1K. In contrast, under similar FLOPs pruning rates, other representative methods show a top-1 accuracy decrease of at least 1. 70% or more.

ICRA Conference 2004 Conference Paper

State Feedback Control of DES on the Finite Forbidden State Problem

  • Yu Ru
  • Weimin Wu 0002
  • Hongye Su
  • Jian Chu

This paper addresses the state feedback control synthesis of discrete event systems on the forbidden state problem in which the forbidden states are finite, especially if they can not be expressed as linear inequality constraints using reported methods. The system is modelled by controlled Petri nets that ape bounded Petri nets or unbounded Petri nets with uncontrollable subnets satisfying the Reverse net Structurally Bounded Condition. Through the analysis of the reverse net, we obtain not only the weakly forbidden markings used to deal with uncontrollable transitions but also the maximally permissive state feedback control policy. Moreover, it is illustrated by an example in the reported literature that the method can be applied conveniently to a class of Petri nets whose uncontrollable subnets are Output Dominant Petri nets.

ICRA Conference 2002 Conference Paper

Supervisory Control of Discrete Event Systems using Enabling Arc Petri Nets

  • Weimin Wu 0002
  • Hongye Su
  • Jian Chu

This paper addresses the supervisory control of the class of discrete event system (DES) modeled by a Petri net. The control specification described by a linear 'less-than-or-equal-to' inequality defined on the place marking of the net has been extensively studied in the literatures. However, in this paper we consider the control specification in the form of linear 'greater-than-or-equal-to' marking inequality. The supervisory control of the DES with 'greater-than-or-equal-to' constraint is implemented via an enabling arc, which is a recently proposed arc by Uzam (1998) and Uzam et al. (1999) and can be regarded as complementarity of inhibitor arc. An example illustrates the supervisory control method is presented in this paper.

ICRA Conference 2001 Conference Paper

Petri Net Controller Synthesis for Discrete Event Systems Using Weighted Inhibitor Arc

  • Weimin Wu 0002
  • Hongye Su
  • Jianbo Hu
  • Jian Chu

A Petri net (PN) with weighted inhibitor arc is exploited to solve the forbidden state problem of discrete event systems (DES). The forbidden state problem considered is described as the linear inequality constraint of the place marking. We first review the relevant work on the control of DES using inhibitor arcs. Then, the design of the PN controller is introduced with two steps. The first step of the design is to track the state of the system. Then, the weighted inhibitor arcs are exploited to disable the relative transitions in the case that the firing of these transitions will violate the constraints. A simple example of a discrete manufacturing system in the reported literature is used to show the detailed procedure of the controller synthesis and the advantages of the presented method.

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