Contact Us
CiiS Lab
Johns Hopkins University
112 Hackerman Hall
3400 N. Charles Street
Baltimore, MD 21218
Directions
Lab Director
Russell Taylor
127 Hackerman Hall
rht@jhu.edu
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**February 4** | **February 4** | ||
- | * Project plan presentations | + | * Project plan presentations |
* Team 1: Control of Eye Snake Robot Using Data Driven Models | * Team 1: Control of Eye Snake Robot Using Data Driven Models | ||
* Team 2: Optimization Based Teleoperated Control of Eye Robots | * Team 2: Optimization Based Teleoperated Control of Eye Robots | ||
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**February 20** | **February 20** | ||
* Project plan presentations | * Project plan presentations | ||
- | * Team 15: Passivity based Adaptive Human/Robot Interaction for Microsurgery | ||
* Team 16: Realistic 3D pelvic phantoms and a photoacoustic/ | * Team 16: Realistic 3D pelvic phantoms and a photoacoustic/ | ||
* Team 17: dVRK Instrument Segmentation and Pose Estimation through High-Resolution Endoscope | * Team 17: dVRK Instrument Segmentation and Pose Estimation through High-Resolution Endoscope | ||
+ | * Team 18: Advanced ultrasound technologies for prostate cancer: Motion tracking using sparse photoacoustic signals | ||
**February 25** | **February 25** | ||
* Project plan presentations | * Project plan presentations | ||
- | * Team 18: Advanced ultrasound technologies for prostate cancer: Motion tracking using sparse photoacoustic signals | ||
* Team 19: Spatial recognition and synthetic aperture focusing in real-time, non-contact ultrasound imaging | * Team 19: Spatial recognition and synthetic aperture focusing in real-time, non-contact ultrasound imaging | ||
* Team 20: Diffusion-based Vertebra Reconstruction | * Team 20: Diffusion-based Vertebra Reconstruction | ||
+ | * Team 21: Digital Twin Representation-based Surgical Phase Recognition | ||
**February 27** | **February 27** | ||
* **IMPORTANT: | * **IMPORTANT: | ||
* Project plan presentations | * Project plan presentations | ||
- | * Team 21: Digital Twin Representation-based Surgical | + | * Team 22: Natural Language Interface for Surgical Robotic System |
+ | * Team 23: Vision-based Soft Tissue Modeling for Digital Twin-based Surgical | ||
+ | * Team 24: DDS middleware for medical robotics | ||
**March 4** | **March 4** | ||
- | * Background reading presentations | + | |
+ | * Team 25: Supervised Autonomous Robotic Renal Tumor Surgery (SARRTS) | ||
+ | | ||
+ | * Team 11 (2p): Eye Snake Localization Using Vision | ||
+ | * Team 12 (2p): Video-based methods for surgeon’s pose analysis in MIS | ||
**March 6** | **March 6** | ||
* Background reading presentations | * Background reading presentations | ||
+ | * Team 13 (3p): Simulation Assisted Navigation for Skull Surgery | ||
+ | * Team 6 (3p): 3D Real-time FBG-based Stylet Shape Sensing | ||
+ | * Team 19 (3p): Spatial recognition and synthetic aperture focusing in real-time, non-contact | ||
**March 11** | **March 11** | ||
* Background reading presentations | * Background reading presentations | ||
+ | * Team 8 (3p): Multilateral Teleoperation based Haptic Training System for the dVRK | ||
+ | * Team 3 (3p): Robotic Assistant for MRI-Guided Low Back Pain Injection | ||
+ | * Team 10 (2p): Eye Motion Compensation in Robotic Subretinal Injections | ||
+ | * Team 2 (2p): Optimization Based Teleoperated Control of Eye Robots | ||
**March 13** | **March 13** | ||
* Background reading presentations | * Background reading presentations | ||
+ | * Team 5 (2p): Intelligent Motion Scaling for Teleoperated Robotic Surgery | ||
+ | * Team 7 (2p): Deformation Suturing Simulation in AMBF | ||
+ | * Team 9 (2p): Automating Robotic Surgical Suturing using RL & IL | ||
+ | * Team 4 (2p): Autonomous Puncture Detection in Retinal Vein Cannulation Using Deep Learning Algorithms | ||
+ | * Team 1 (2p): Control of Eye Snake Robot Using Data Driven Models | ||
**March 18 - Spring break ** | **March 18 - Spring break ** | ||
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**March 25** | **March 25** | ||
- | * Background reading | + | * Checkpoint |
+ | * Team 25: Supervised Autonomous Robotic Renal Tumor Surgery (SARRTS) | ||
+ | * Team 24: DDS middleware for medical robotics | ||
**March 27** | **March 27** | ||
- | * Background reading presentations | + | * **IMPORTANT: |
+ | * Checkpoint | ||
+ | * Team 23: Vision-based Soft Tissue Modeling for Digital Twin-based Surgical Robotics | ||
+ | * Team 22: Natural Language Interface for Surgical Robotic System | ||
+ | * Team 21: Digital Twin Representation-based Surgical Phase Recognition | ||
**April 1** | **April 1** | ||
* Checkpoint presentations | * Checkpoint presentations | ||
+ | * Team 20: Diffusion-based Vertebra Reconstruction | ||
+ | * Team 19: Spatial recognition and synthetic aperture focusing in real-time, non-contact | ||
+ | * Team 18: Advanced ultrasound technologies for prostate cancer: Motion tracking using sparse photoacoustic signals | ||
**April 3** | **April 3** | ||
* Checkpoint presentations | * Checkpoint presentations | ||
+ | * Team 17: dVRK Instrument Segmentation and Pose Estimation through High-Resolution Endoscope | ||
+ | * Team 16: Realistic 3D pelvic phantoms and a photoacoustic/ | ||
+ | * Team 14: Transsphenoidal surgical simulator | ||
**April 8** | **April 8** | ||
* Checkpoint presentations | * Checkpoint presentations | ||
+ | * Team 13: Simulation Assisted Navigation for Skull Surgery | ||
+ | * Team 12: Video-based methods for surgeon’s pose analysis in MIS | ||
+ | * Team 11: Eye Snake Localization Using Vision | ||
**April 10** | **April 10** | ||
* Checkpoint presentations | * Checkpoint presentations | ||
+ | * Team 10: Eye Motion Compensation in Robotic Subretinal Injections | ||
+ | * Team 9: Automating Robotic Surgical Suturing using RL & IL | ||
+ | * Team 8: Multilateral Teleoperation based Haptic Training System for the dVRK | ||
**April 15** | **April 15** | ||
- | * Checkpoint presentations | + | * Checkpoint presentations |
+ | * Team 7: Deformation Suturing Simulation in AMBF | ||
+ | * Team 6: 3D Real-time FBG-based Stylet Shape Sensing | ||
+ | * Team 5: Intelligent Motion Scaling for Teleoperated Robotic Surgery | ||
**April 17** | **April 17** | ||
* Checkpoint presentations | * Checkpoint presentations | ||
+ | * Team 4: Autonomous Puncture Detection in Retinal Vein Cannulation Using Deep Learning Algorithms | ||
+ | * Team 3: Robotic Assistant for MRI-Guided Low Back Pain Injection | ||
+ | * Team 2: Optimization Based Teleoperated Control of Eye Robots | ||
**April 22** | **April 22** | ||
* Checkpoint presentations | * Checkpoint presentations | ||
+ | * Team 1: Control of Eye Snake Robot Using Data Driven Models | ||
+ | * Background reading presentations | ||
+ | * Team 25 (2p): Supervised Autonomous Robotic Renal Tumor Surgery (SARRTS) | ||
+ | * Team 23 (1p): Vision-based Soft Tissue Modeling for Digital Twin-based Surgical Robotics | ||
+ | * Team 16 (1p): Realistic 3D pelvic phantoms and a photoacoustic/ | ||
+ | * Team 24 (1p): DDS middleware for medical robotics | ||
+ | * Team 22 (1p): Natural Language Interface for Surgical Robotic System | ||
**April 24 - Last day of classes** | **April 24 - Last day of classes** | ||
- | * Final checkpoint | + | * Background reading |
+ | * Team 18 (1p): Advanced ultrasound technologies for prostate cancer: Motion tracking using sparse photoacoustic signals | ||
+ | * Team 14 (1p): Transsphenoidal surgical simulator | ||
+ | * Team 17 (1p): dVRK Instrument Segmentation and Pose Estimation through High-Resolution Endoscope | ||
+ | * Team 21 (2p): Digital Twin Representation-based Surgical Phase Recognition | ||
+ | * Team 20 (2p): Diffusion-based Vertebra Reconstruction | ||
+ | * Poster | ||
**May 5 - Final exam** | **May 5 - Final exam** |