Changes between Version 4 and Version 5 of BabyTigers-R/2026


Ignore:
Timestamp:
03/19/26 01:10:25 (3 days ago)
Author:
kosuke
Comment:

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  • BabyTigers-R/2026

    v4 v5  
    88
    99=== Members ===
    10  * IND01: !BabyTigers-R
    11   * Wataru Uemura
    12   * Kosuke Nakajima
    13 
    14 -----
     10
     11IND01: !BabyTigers-R
     12
     13Wataru Uemura / 植村 渉
     14
     15Kosuke Nakajima / 中嶋 洸介
     16
    1517[[br]]
    1618
    17 == RoboCup2026 Inchoen ==
    18  - https://2026.robocup.org/
    19  * team description paper is [https://vega.elec.ryukoku.ac.jp/trac/raw-attachment/wiki/BabyTigers-R/2026/RCLL_TDP_BTR2026.pdf here].
     19== RoboCup2026 Incheon ==
     20
     21https://2026.robocup.org/
     22
     23team description paper is [https://vega.elec.ryukoku.ac.jp/trac/raw-attachment/wiki/BabyTigers-R/2026/RCLL_TDP_BTR2026.pdf].
    2024
    2125=== Members ===
    22  * !BabyTigers-R
    23   * Wataru Uemura
    24   * Kosuke Nakajima
     26
     27!BabyTigers-R
     28
     29Wataru Uemura / 植村 渉
     30
     31Kosuke Nakajima / 中嶋 洸介
    2532
    2633=== Team Description Paper ===
    27  - Name of the team (title)
    28    * !BabyTigers-R
    29 
    30  - Team members (authors), including the team leader
    31    * 植村 渉,中嶋 洸介
    32    * Wataru Uemura, Kosuke Kakajima
    33 
    34  - Link to the team website
    35    * https://vega.elec.ryukoku.ac.jp/trac/wiki/BabyTigers-R/2026
    36 
    37  - Contact information
    38    * robocup@vega.elec.ryukoku.ac.jp
    39 
    40  - the focus of research/research interests
    41    * 自己位置推定
    42    * マーカー検知・認識
    43    * 経路計画(局所的経路計画)
    44 
    45  - a description of the hardware, including an image of the robot(s)
    46    * Mobile robots
    47      * Robotino 3/4
    48      * Kachaka
    49      * myAGV
    50    * Arm-typed robots
    51      * Cobotta
    52      * MyPalletizer
    53  
    54  - a description of the emergency stop concept and its implementation
    55    * Now implementing ...
    56 
    57  - a description of the software, esp. the functional and software architectures
    58    * python + ROS2
    59 
    60  - innovative technology (if any)
    61     * 3D-Lidar
    62     * Marker Detection
    63 
    64  - reusability of the system or parts thereof
    65     * Hardwere part + Software part
    66     * bridge ROS1 and ROS2 using SSH
    67 
    68  - applicability and relevance to industrial tasks
    69     * ROS2 framework
    70 
    71  - usage of components (software or hardware) developed by other !RoboCup teams
    72     * communication module for RefBox
    73       * ROS1 and ROS2
    74 ----
     34
     35- Name of the team (title)
     36
     37* !BabyTigers-R
     38
     39- Team members (authors), including the team leader
     40
     41* Wataru Uemura (Team Leader) / 植村 渉(チームリーダー)
     42
     43* Kosuke Nakajima (Team Leader) / 中嶋 洸介(チームリーダー)
     44
     45- Link to the team website
     46
     47* https://vega.elec.ryukoku.ac.jp/trac/wiki/BabyTigers-R/2026
     48
     49- Contact information
     50
     51* robocup@vega.elec.ryukoku.ac.jp
     52
     53- the focus of research / research interests
     54
     55* EN:
     56
     57 * Robot localization using SLAM and visual markers
     58
     59 * Robust ArUco marker detection with error correction
     60
     61 * Multi-robot path planning and coordination
     62
     63 * Smart manufacturing and industrial automation systems
     64
     65* JP:
     66
     67 * SLAMおよびマーカーを用いた自己位置推定
     68
     69 * 誤り訂正を含むArUcoマーカー高精度認識
     70
     71 * マルチロボットの経路計画・協調制御
     72
     73 * スマートマニュファクチャリングおよび産業自動化
     74
     75- a description of the hardware, including an image of the robot(s)
     76
     77* EN:
     78
     79 * Mobile platforms: Robotino, Kachaka, and myAGV (Mecanum-wheel omnidirectional drive with LiDAR)
     80
     81 * Manipulators: Cobotta and myPalletizer (4-DoF arm with onboard Raspberry Pi control)
     82
     83 * Sensors: Intel RealSense D435, USB camera, and LiDAR for perception and localization
     84
     85* JP:
     86
     87 * 移動ロボット:Robotino、Kachaka、myAGV(メカナムホイールによる全方向移動・LiDAR搭載)
     88
     89 * アーム:Cobotta、myPalletizer(4自由度・Raspberry Pi制御)
     90
     91 * センサ:RealSense D435、USBカメラ、LiDAR
     92
     93- a description of the emergency stop concept and its implementation
     94
     95* EN:
     96
     97 * Hardware-level emergency stop via a dedicated power cutoff button (under implementation)
     98
     99 * Software-level safety using ROS2 monitoring nodes to issue zero-velocity commands and disable actuators
     100
     101 * Dual-layer safety architecture ensuring reliable operation
     102
     103* JP:
     104
     105 * ハードウェア:電源遮断型の非常停止ボタン(実装中)
     106
     107 * ソフトウェア:ROS2ノードによる異常検知と停止制御
     108
     109 * ハード・ソフトの二重安全構造
     110
     111- a description of the software, esp. the functional and software architectures
     112
     113  * EN:
     114
     115   * Python-based system built on ROS 2 (Humble / Jazzy)
     116
     117   * Custom ROS2 bridge for RefBox communication
     118
     119   * SLAM-based localization and modular architecture
     120
     121   * SSH-based manipulator control decoupled from ROS
     122
     123  * JP:
     124
     125   * Python + ROS2(Humble / Jazzy)による構成
     126
     127   * RefBox通信のための独自ブリッジ
     128
     129   * SLAMによる自己位置推定とモジュール設計
     130
     131   * SSHによるROS非依存アーム制御
     132
     133- innovative technology (if any)
     134
     135  * EN:
     136
     137   * Error-resilient ArUco marker detection with row-wise correction
     138
     139   * Cooperative localization among multiple robots
     140
     141   * Low-cost 3D mapping using tilted LiDAR
     142
     143   * Exploration of LLM-based robot programming
     144
     145  * JP:
     146
     147   * 行単位誤り訂正による高耐性ArUco検出
     148
     149   * 複数ロボット間の協調位置推定
     150
     151   * LiDAR傾斜による低コスト3Dマッピング
     152
     153   * LLMを活用したロボット制御研究
     154
     155- reusability of the system or parts thereof
     156
     157  * EN:
     158
     159   * Modular architecture separating hardware and software
     160
     161   * ROS-independent manipulator control via SSH
     162
     163   * Compatibility with both ROS1 and ROS2 ecosystems
     164
     165   * Open-source RefBox communication modules
     166
     167  * JP:
     168
     169   * ハード・ソフト分離のモジュール設計
     170
     171   * SSHによるROS非依存制御
     172
     173   * ROS1/ROS2両対応
     174
     175   * RefBox通信のオープンソース化
     176
     177- applicability and relevance to industrial tasks
     178
     179  * EN:
     180
     181   * Designed for smart manufacturing environments
     182
     183   * Supports flexible, high-mix low-volume production
     184
     185   * Enables scalable and adaptive robotic systems
     186
     187  * JP:
     188
     189   * スマートマニュファクチャリングへの適用
     190
     191   * 多品種少量生産への対応
     192
     193   * 拡張性の高いロボットシステム
     194
     195- usage of components (software or hardware) developed by other !RoboCup teams
     196
     197  * EN:
     198
     199   * RefBox communication modules originally developed for ROS1
     200
     201   * Extended and maintained for ROS2 by our team
     202
     203  * JP:
     204
     205   * RefBox通信モジュール(ROS1ベース)
     206
     207   * ROS2対応として自チームで拡張・公開