| 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 |