I can provide you some useful use cases. I would need to see how well it works first. We used to do some of this back at JPL. @Kamal Lutfi

@Joseph Isosaki the Jet Propulsion Lab in Pasadena.

Interesting request. Ultrasound might be the wrong visualization tool. I can think of some less energetic options that could be made consumer friendly. Since we are a public group, I am not sure innovating them here makes sense. If you end up with a clearer need, I can get back to you with some potentially safer visualization options. @Kamal Lutfi

What scale of budget is appropriate for both of these options? We can talk by DM, if better.

Is this the type of info you are looking for? Techniques from Neuralink's precise, robotic brain surgery can inspire and be adapted for endovascular/neurovascular robotics, particularly in enhancing micromanipulation, visualization (like Neuralink's light feedback), and miniaturized robotic control for navigating complex vessels, moving towards remote, AI-assisted procedures for strokes and aneurysms. While Neuralink focuses on intracortical implants, its methods for extreme precision and automated insertion are transferable, as robotic endovascular systems (like CorPath) already exist and are evolving to integrate similar advanced control and imaging. Key Areas of Adaptation & Synergy: 1. Ultra-Precision & Miniaturization:Neuralink's robot places microscopic threads; this precision is crucial for navigating tiny brain arteries.Endovascular robotics can adopt similar micro-actuators and control systems to guide catheters and guidewires with sub-millimeter accuracy, overcoming miniaturization challenges. 2. Advanced Visualization & Feedback:Neuralink's light-based feedback for real-time positioning is a sophisticated form of visual guidance.Endovascular systems can integrate such advanced optical feedback (like endoscopy) with AI to enhance real-time imaging and device positioning within vessels, potentially detecting microvessels invisible on standard scans. 3. Robotic Control & Automation:Neuralink uses highly automated robotic insertion.Endovascular robots (like those used for coiling aneurysms) already translate surgeon joystick movements into precise linear/rotational catheter control, but future systems can incorporate more of Neuralink's automation for faster, more consistent procedures. 4. Material Science & Device Design:Neuralink uses biocompatible materials like graphene/CNTs.Similar materials and flexible designs could enhance neurovascular tools, allowing for softer, more compliant microcatheters that better navigate tortuous vessels. 5. AI Integration & Telestroke Potential:Both fields aim to leverage AI for analysis and decision-making.Neuralink's robotic precision combined with endovascular platforms could enable remote "telestroke" interventions, where specialists control robots to treat strokes or aneurysms miles away. 

@Joseph Isosaki nothing out of the ordinary.

@Joseph Isosaki Thanks for suggesting. I also plan to be in Europe that week, but different country (border of France and Germany). Let me know how it goes. Any useful materials you can pull from these conferences and share here would be great. Their ticket cost and timing are both barriers that you can help us overcome, by simply bringing info and connections back to us.