Farbod Khoshnoud

Farbod Khoshnoud

Associate Professor, Electromechanical Engineering Technology, College of Engineering

Research

-Self-powered Dynamic Systems

-Nature and Biologically inspired Dynamic Systems

-Quantum Multibody Dynamics, Robotics, and Autonomy*

-Uncertainty Quantification for engineering Systems 

 

Research Presentation March 2021

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Quantum Robotics AI Image by Farbod Khoshnoud with bionic hand and gears in the foreground, and planets and galaxies in the background.

An overview of our research in Self-powered and Nature/Bio-inspired Systems, and Quantum Robotics and Autonomy is summarized in Section 2 of this [PDF].

 

 Quantum Drone and Robot in robotics lab

Research Videos are available on Youtube Channel. Please Click here to see.

 A talk on "Quantum Multi-body Dynamics, Robotics, Autonomy": https://www.youtube.com/watch?v=VIElS72EnfY 

 

The wikipedia page on Quantum Robotics:

https://en.wikipedia.org/wiki/Quantum_Robotics

 

*For the first time, we are tackling the interface of Quantum Science and Technology, and Robotic Systems Autonomy, under the topic of Quantum Robotics. We want to bring the two areas of Quantum Technologies and Robotics/System Autonomy together in order to explore the opportunities at the interface that offer potential for future applications in advanced autonomy, mechatronics, autonomy, security and cyber-physical systems in multiple domains, going beyond existing techniques. Our research is focused on the engineering applications of quantum paradigms (protocols, algorithms, sensing and control techniques) that will enable new applications and capabilities for increased autonomy of macroscopic systems as robotic platforms (not the aspects of the science of Quantum, nor quantum computing alone). The research includes the experimental aspects of quantum entanglement and cryptography that can be demonstrated today in the lab, and their integration and testing with multi-agent robotic controls. Our Quantum Multibody Dynamics research is an initiative with applications to robotics, control, and autonomy with unmatched quantum capabilities such as Guaranteed Security, Ultimate Speed for control, and entanglement, which allows capabilities beyond any classical and existing engineering techniques in cooperative multi-agent robotics, controls, and autonomy. We are also interested in the compatibility and adaptability of quantum technologies and classical robotic systems from the mechatronics point of view. This original and pioneering research is carried out by Dr. Farbod Khoshnoud (from California State Polytechnic University, Pomona, and a research affiliate at JPL), Dr. Marco Quadrelli (from NASA JPL, Caltech), Professor Ibrahim I. Esat (from Brunel University, London, UK), and Professor Clarence W. De Silva (from the University of British Columbia), For some information about this research please see the preprint of some of our papers available here:  https://arxiv.org/search/?query=khoshnoud&searchtype=all&source=header 

Click here for the video introducing Quantum Multibody Dynamics, Robotics, and Autonomy.

Quantum Entangled Robots and Alice Drone

"At the rate that quantum mechanics field is developing, I think that we will need terms such as "quantum engineering" to keep up with the opportunities." By Professor Steven W. McCauley, Department of Physics and Astronomy, California State Polytechnic University, Pomona, 2019.

 

 Quantum Engineering special issue of the Journal of Mechatronic Systems and Controls

Submission due 15 February 2020 via: https://www.editorialmanager.com/msc/default.aspx 

Quantum Engineering Journal

 

The polarizer is positioned between the BBO and Alice's Beamsplitter (BS), modifying the polarization of the entangled photon traveling from BBO to Alice. This change reflects the polarization of the correlated photon that reaches Bob's Beamsplitter and the Single Photon Counter (SPC) modules. Components labeled: BBO Crystal, Alignment laser, Mirror, Polarizer, Bob Robot, Beamsplitters, Entangled photon pairs (810 nm), Alice Robot, Single Photon Counter (SPC), Laser Diode Driver - Current or Constant Power Driving.

Quantum Entangled Robots (Sharing entangled photons)

Beam-splitter (BS) cubes allow photons with horizontal polarization to pass through while reflecting photons with vertical polarization. This setup involves entangled photon pairs and includes various quantum entanglement and cryptography components. Components labeled: 810 nm filter, Single Photon Counter (SPC) module, SPC Software (for photon detection), Polarizer, BS, Quantum Cryptography components, Sensors, Bob Robot, Robots sharing entangled photon pairs, Alice Robot.

Quantum Entangled Robots Alice and Bob sharing entangled photons

Setup with a laser, gimbal, and various components for quantum experiments. The polarizer and 810 nm filter are part of the system, with labels pointing to different parts of the apparatus. Components labeled: To coincidence counter, 810 nm filter, Polarizer, Laser, Gimbal, BS, SPC, Gimbal battery, Alice Robot.

Alice Robot

Bob Robot features quantum entanglement and cryptography components, including sensors, polarizers, and motion tracking equipment.  Components labeled: Quantum Entanglement Components, SPC, BS, Quantum Cryptography Components, Sensors, Polarizer, Motion tracking camera, Motion tracking servo motor.

Bob Robot

Drone equipped with a polarizer and a laser diode. The polarizer is mounted in front of the laser diode, which is attached to an arm extending from the drone. The background includes laboratory equipment and furniture, indicating a lab setting.

Alice Drone

Bob Robot and Alice Drone in the lab. Both are equipped with polarizers, and Alice Drone is equipped with a Laser diode.

Alice Drone sending polarized photons to Bob Robot