Name |
Home Institution |
Program |
Point of Contact |
Task Name |
Aggarwal, Rajan | UNIV OF ILLINOIS @ URBANA-CHAMPAIGN | JPLSIP | Scott Moreland | Enceladus Lander In-situ Sampler Developement |
Activity: The internship task will involve the candidate performing mechanical design, assembly and laboratory testing of prototype sampling systems for application to Enceladus surfaces. |
Ahmad, Adeel | COLUMBIA UNIV SCHOOL ENGIN-UNDERGRA | JPLSIP | Scott Moreland | Enceladus Lander In-situ Sampler Developement |
Activity: The internship task will involve the candidate performing mechanical design, assembly and laboratory testing of prototype sampling systems for application to Enceladus surfaces. |
Aiazzi, Carolina | Politecnico di Milano | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
Alatur, Nikhilesh Athresh | ETH Zurich | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Alfeerawi, Dania | UNIVERSITY OF CALIFORNIA-IRVINE | MSP | Eric Kulczycki | Mechanical Design and Testing for Mars Sample Transfer Test bed |
Activity: Student will assist in the design, development, and testing of robotic arm control and workspace analysis software for sample retrieval tools and sample cache interface features as part of the development of a Mars Sample Transfer Test-bed development. |
Archanian, Avak | UNIVERSITY OF CALIFORNIA-SAN DIEGO | JPLYIP-SUM | Ara Kourchians | Robosimian Rebuild |
Activity: To design, build, test, and install a new power management system into Robosimian. The new system will augment the robots functionality by monitoring and reporting the subsystem voltages and currents, and will add the ability to buffer energy for large current demands during strenuous motions. |
Aucone, Emanuele | University of Pisa | JVSRP | Patrick McGarey | Enhancing mobility and control of the DuAxel rover system |
Activity: This project will specifically look at developing rover control algorithms that will enhance the overall mobility of the DuAxel system on different types of terrain. Currently mobility is somewhat crude due to Axel’s grouser style wheels. |
Banks, Christopher | GEORGIA INSTITUTE OF TECHNOLOGY | JPLSIP | Amir Rahmani | Hazard Avoidance for Unmanned Vessels with a Towed Sensor |
Activity: The student will be working closely with a team of JPL engineers and will contribute to the project as needed in design and implementation of motion planning and estimation algorithms, running simulations, improving simulation software, and analyzing results. |
Bao, Richard | CALIFORNIA INSTITUTE OF TECHNOLOGY | SURF | Roland Brockers | Visual Radar |
Activity: The goal of this project is to develop and implement a method to produce highly accurate online terrain-elevation maps to enable collision free flight in Earth and Mars like environments. The method will be based on 3D point cloud measurements acquired through a stereo camera system onboard a UAS or aircraft. |
Beard, Jared | WEST VIRGINIA UNIVERSITY | JVSRP | Rohan Thakker | Next Generation Robots and AI for Exploring Space and Earth (JVSRP Rohan) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Bechini, Michele | Politecnico of Milan | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
Ben Miled, Meriem | ETH zurich | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Berman, Jonathan | HARVARD UNIVERSITY | JPLSIP | Marco Quadrelli | Terrain Registration for Rover Operations |
Activity: The Robotics Interfaces and Visualization group seeks a summer intern with experience in 3D visualization, computational geometry, point cloud processing, and machine learning to work on a new pipeline for automatic terrain registration. The student will develop a new pipeline for point set registration, which will become part of the RSVP (Rover Sequencing and Visualization Program) suite of tools. |
Bernhard, Benjamin | UNIVERSITY OF NOTRE DAME | JPLYIP-SUM | Amir Rahmani | Infrastructure and Algorithms for Spacecraft Swarm Coordination |
Activity: The student will work closely with JPL engineers and depending on project needs will assist in software implementation of algorithms, designing and setting up simulation environment, running simulations, and hardware demonstrations. |
Bhanji, Alisha | University of Waterloo | JVSRP | Aaron Parness | Electrostatic Adhesive Gripper |
Activity: The selected student will work to improve on the adhesive perching mechanism to increase the performance and decrease the weight of the system. Additional designs will complement the gripper with the use of electrostatics and gecko-like adhesives. The student is expected to mock up designs using spare hardware, develop detailed CAD models of new prototypes, and oversee the fabrication and assembly of these designs. |
Bochicchio, Alfredo | Sant'Anna University | JVSRP | Brett Kennedy | Tactile Gripper Development |
Activity: Develop tactile sensing, and incorporate it into an end effector to be used on Robosimian. Experimental study about tactile telepresence for remote operation in space and robotics applications at JPL. |
Boroson, Elizabeth | UNIVERSITY OF SOUTHERN CALIFORNIA | NSTRF | Jean-Pierre de la Croix | Learning Coordination for Multi-Rover Planetary Exploration - NSTRF |
Activity: The development of algorithms for coordination for a group of heterogeneous robots exploring, mapping, and operating in a previously unknown environment during planetary exploration. |
Boscolo Camiletto, Andrea | Scuola Superiore Sant'Anna | JVSRP | Brett Kennedy | Tactile Gripper Development |
Activity: Develop tactile sensing, and incorporate it into an end effector to be used on Robosimian. Experimental study about tactile telepresence for remote operation in space and robotics applications at JPL. |
Bowkett, Joseph | CALIFORNIA INSTITUTE OF TECHNOLOGY | JVSRP | Brandon Rothrock | Learning post-conditions for manipulation tasks |
Activity: Assist in all or a subset of the following areas, depending on skillset and interest: - Conceptual development: design and implementation of statistical models for characterizing grasp-related processes. - Software development: rewriting research code into high-performance implementations. - Experimental design and realization: Generating training data. Drawing experimental protocols. Integration with robot hardware including a Kuka iiwa with three-finger robotiq gripper, and Robosimian. Supervising robot experiments. - Publication: summarizing our results in scientific publications. |
Bretl, Evan | GEORGIA INSTITUTE OF TECHNOLOGY | JPLSIP | Jean-Pierre de la Croix | On-board Autonomy for a Small, Foldable Robot |
Activity: The student will contribute to on-going development of autonomy functionality for PUFFER (e.g., motion control, state estimation, etc.). |
Buebel, Spencer | VIRGINIA POLYTECH INST & STATE UNIV | JPLYIP | Joshua Vander Hook | Robotic Edge Computing for Mars |
Activity: This project involves helping JPL researchers and engineers develop new sensor network technologies and distributed algorithms for Mars and Lunar exploration, with a strong focus on communication network optimization and software engineering. The ideal candidate will also handle the hardware integration with a network of small mobile robots. |
Camargo Forero, Leonardo | Technical University of Catalonia | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Camasmie, Paulo | CARNEGIE MELLON UNIVERSITY | JPLSIP | Gene Merewether | Mars Science Helicopter Research and Technology -- SUMMER |
Activity: Based on the prior trade-space studies, sub-system forecasts, and science requirements, we will build a demonstration vehicle capable of addressing all the various mission requirements, while also mimicking the expected dynamic characteristics and overall capabilities of the canonical Mars Science Helicopter design. (i.e. applying velocity limits, acceleration limits, angular rate limits, slew rate limits, thrust limits, etc.) |
Cameron, Jessica | CALIF STATE POLYTECHNIC UNIV POMONA | JPLYIP | Brett Kennedy | In-orbit Capture Mechanism Design for Mars Sample Return |
Activity: The project will consist of designing mechanical devices using CAD software on the computer, ordering and assembling parts for prototyping on a workbench, testing the capture techniques in the lab, and reporting on capture performance and recommendations for future development. |
Cauligi, Abhishek | STANFORD UNIVERSITY | NSTRF | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Chase, Timothy | "SUNY BUFFALO State College, New York " | JPLYIP | Steven Myint | Simulation for Mars 2020 rover operations |
Activity: This task will extend and test the capabilities of the SSIm framework. Areas this will cover are simulation of sensors and other hardware that interact with flight software, creation of automated tools that make use of SSim, and extensions to the web service that serves SSim to its clients. |
Chen, Irene | COLUMBIA UNIVERSITY | JPLSIP | Alexander Brinkman | Develop Control software for EtherCAT-connected Avionics |
Activity: This task is to develop a stand alone software system that is capable of running a minimum set of hardware and sensors needed by JPL research testbeds. The task should considering open source alternatives for our applications and end by demonstrating prototype solutions on various computers and operating systems. |
Chiu, Chi | CALIF STATE POLYTECHNIC UNIV POMONA | JPLYIP | Brett Kennedy | In-orbit Capture Mechanism Design for Mars Sample Return |
Activity: The project will consist of designing mechanical devices using CAD software on the computer, ordering and assembling parts for prototyping on a workbench, testing the capture techniques in the lab, and reporting on capture performance and recommendations for future development. |
Contreras, Mario | MASSACHUSETTS INST OF TECHNOLOGY | JPLSIP | Aaron Parness | LLAMA Robot Mechanical |
Activity: The intern will serve as a test engineer for the robot. Will also observe tests, analyze data, design & fabricate any ground support equipment that is needed, and contribute to the redesign discussions based on robot performance. |
Culbertson, Preston | STANFORD UNIVERSITY | NSTRF | Saptarshi Bandyopadhyay | Technology Development for In-Space Assembly Applications - NSTRF |
Activity: The objective of this effort is to mathematically state the assembly sequencing problem for ISA, which captures all the constraints and complexities of real-world situations, and develop efficient mathematical techniques to solve this problem. We propose to pose the assembly sequencing problem for ISA as a mixed-integer linear program (MILP) using a number of novel mathematical techniques, to take advantage of fast MILP solvers. |
Daddi, Guglielmo | Politecnico di Torino | JVSRP | Aaron Parness | Paschen breakdown mitigration strategies for high-voltage systems on Mars |
Activity: The intern will work with the task PI, Texas A&M University, and Honeybee Robotics to understand the principal challenges of multi-kV systems on Mars (required for pulsed plasma). The rarefied, CO2 atmosphere presents a challenge in the context of voltage breakdown and unintentional arcing. The intern will work to provide recommended mitigation strategies and provide a path forward for continued research. |
Daniel, Nathan | GEORGIA INSTITUTE OF TECHNOLOGY | JPLSIP | Travis Brown | Axel Rover Development |
Activity: This project focuses on development and testing of electrical, mechanical, and computer systems on the Axel rover. This includes electrical systems integration, testing, and programming. Student will also be involved in the development of a tethered autonomy pipeline. |
de Freitas Bart, Ryan | MASSACHUSETTS INST OF TECHNOLOGY | JVSRP | Raymond Ma | Testbed Support for In-Space Assembly |
Activity: A current testbed incorporating a mobile manipulator has been developed to evaluate strategies for in-space assembly and repair of satellites. Students are needed to support the testbed in terms of hardware maintenance, testing support, and further testbed development. |
DeVore, Wesley | UNIVERSITY OF CALIFORNIA-RIVERSIDE | MSP | Alexander Brinkman | Mars Sample Transfer Testbed Robotic Arm Operations Testing and Software |
Activity: Student will assist in the design, development, and testing of robotic arm control and workspace analysis software for sample retrieval tools and sample cache interface features as part of the development of a Mars Sample Transfer Test-bed development. |
Dhaouadi, Wassim | Swiss Federal Institute of Technology Zurich | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. There are also opportunities in the development and application of the basic multibody dynamics and control algorithms used in these real-time simulations. |
Di, Julia | STANFORD UNIVERSITY | NSTRF | Jaakko Karras | Elastic and Compliant Sensors for PUFFER |
Activity: This project will evaluate what can be done to sense the folded chassis state with existing off-the-shelf sensors and compare those to the performance that can be achieved with motor-derived estimation. Off-the-shelf resistive and/or capacitive flex/stretch sensors will be retro-fitted onto existing PUFFER prototypes, and then characterized for sensing performance (accuracy, repeatability, bandwidth, etc) as well as factors such as durability, ease of integration, etc. |
Dominguez, Mitchell | CORNELL UNIVERSITY | JPLYIP | Jonathan Cameron | DARTS Lab Software Development ME (Spring 2019) |
Activity: The DARTS/Dshell simulation framework has many software development projects in simulation capabilities, visualization, user interfaces, data management, web services, and more. Students will work with the DARTS Lab team in the development, improvement, and adaptation of software tools for aerospace simulation applications. |
Domnik, Matthias | Fachhochschule Dortmund | JVSRP | Roland Brockers | 3D Perception for Aerial Terrain Reconstruction |
Activity: The goal of this project is to develop and implement a method to produce highly accurate online terrain maps to enable collision free safe landing in Earth and Mars like environments. |
Dor, Harel | CALIFORNIA INSTITUTE OF TECHNOLOGY | SURF | Jeff Delaune | Vision-Based Navigation for a Mars Science Helicopter |
Activity: The participant will join a team of 2 JPL employees and 1 postdoc in the design, implementation and testing of a novel vision-based navigation algorithm tailored for robust performance in Mars-like conditions. The technical plan can involve image processing, computer vision, state estimation or sensor fusion based on the candidate's profile, interest and dates of availability. |
Duong, Van | UNIVERSITY OF MINNESOTA-TWIN CITIES | Space Grant | Adrian Stoica | Interfaces for Enhanced Robotic Operability |
Activity: Enhance existing Mars 2020- SCS operator interfaces, and expand the modalities of interaction. |
D'urso, Giovanni | University of Technology Sydney | JVSRP | Gareth Meirion-Griffith | Design optimization, simulation and field evaluation for mobile robot mobility systems operating on analogue Ocean World terrain |
Activity: To evaluate the efficacy of actively articulated suspension compared with the rocker-bogie mobility system the candidate will assist in running mobility field trials using both types mobility systems. |
Ebadi, Kamak | SANTA CLARA UNIVERSITY | JPLYIP | Brett Kennedy | Mobile Autonomous Robotic Swarm |
Activity: Integrate the gas sensor into the perception and mapping system. |
Elliott, David | "CORNELL UNIVERSITY " | NSTRF | Issa Nesnas | Tumbling/Rolling Mobility with Polyhedral Rover |
Activity: The student will investigate polyhedral rovers that does not use wheels, but instead rolls around from side to side. A roll from one side to another is defined as a step. The rover uses one or more Single-Gimbal Center Control Moment Gyroscopes to move. |
Emmei, Tomoki | the University of Tokyo | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Escobar, Daniel | UNIV OF MARYLAND AT COLLEGE PARK | JPLSIP | Gene Merewether | Mars Science Helicopter Research and Technology -- SUMMER |
Activity: Based on the prior trade-space studies, sub-system forecasts, and science requirements, we will build a demonstration vehicle capable of addressing all the various mission requirements, while also mimicking the expected dynamic characteristics and overall capabilities of the canonical Mars Science Helicopter design. (i.e. applying velocity limits, acceleration limits, angular rate limits, slew rate limits, thrust limits, etc.) |
Faccani, Matteo | Scuola Superiore Sant'Anna-Università di Pisa | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
Falk, Hailey | UNIVERSITY OF CALIFORNIA-DAVIS | MSP | Eric Kulczycki | Mechanical Design and Testing for Mars Sample Transfer Test bed |
Activity: Student will assist in the design, development, and testing of technology for sample caches as part of the development of a Mars Sample Transfer Test-bed development. Student will help to evaluate prototypes through operations of the MSTT Test-bed for data collection and demonstration of key functionality for the SRL Concept Mission. Student will take part in Mars Yard Testing with Fetch Rover. |
Fan, David | GEORGIA INSTITUTE OF TECHNOLOGY | JPLYIP | Rohan Thakker | Next Generation Autonomous Robots for Exploring Space and Earth - Morrell |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Ferrini, Lorenzo | University of Pisa | | Brett Kennedy | Tactile Gripper Development |
Activity: Develop tactile sensing, and incorporate it into an end effector to be used on Robosimian. Experimental study about tactile telepresence for remote operation in space and robotics applications at JPL. |
Fertel, Miles | HARVARD UNIVERSITY-HARVARD COLLEGE | JPLSIP | Steven Myint | Fuzzing Mars 2020 flight software |
Activity: This task will apply coverage-guided fuzz testing techniques to the Mars 2020 flight software (including mobility, sample caching, and opportunistic sequence execution planner). |
Freeman, Martin | STANFORD UNIVERSITY | JPLYIP | Michael Wolf | Sensor network development for Mars exploration |
Activity: This project involves helping JPL reserachers and engineers develop new sensor network technologies and distributed algorithms for Mars and Lunar exploration, with a strong focus on communication network optimization and software engineering. |
Frye, Alex | FRANKLIN W. OLIN COLLEGE OF ENGINEE | JPLYIP | Aaron Parness | Volcanic Gas Collection |
Activity: Learning and Reasoning about Anchor Points for Tethered Robots |
Funabiki, Nobuhiro | The University of Tokyo | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Gatto, Joseph | COLUMBIA UNIV SCHOOL GENERAL STUDIE | JPLSIP | Yumi Iwashita | Chevron Tight Rock Project |
Activity: The project will focus on developing deep learning-based methods to predict oil/gas production. |
Georgescu, Leonardo | UNIVERSITY OF NEVADA-LAS VEGAS | Space Grant | Travis Brown | Axel Rover Development |
Activity: This project focuses on development and testing of mechanical, electrical and computer systems on the Axel Rover. This includes electrical circuit design, integration, testing, and programming. |
Ginoya, Manit | University of Ottawa | JVSRP | Hari Nayar | Modeling and Simulation of BALLET |
Activity: Develop a physics-based dynamics model of BALLET (Balloon Locomotion for Extreme Terrain) and perform simulations of BALLET traversing realistic terrain. |
Ginting, Muhammad Fadhil | ETH Zürich | NSTRF | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Glassner, Samantha | NORTHEASTERN UNIVERSITY | JPLYIP | Spencer Backus | System development for In-Space Assembly |
Activity: Students will support the testbed and continue development and testing of the robotic system, precision joints, and other systems integral to the modular serviceable satellite concept. |
Glick, Paul | UNIVERSITY OF CALIFORNIA-SAN DIEGO | NSTRF | Donald Ruffatto | Extending Controllable Adhesive Technologies to Irregular Surfaces with Soft Robotic Actuation |
Activity: The student will work to integrate current gecko-like adhesives developed at JPL with the growing field of soft robotics while addressing the challenges of utilizing soft robotic mechanisms in space. |
Gozoev, Akhsarbek | University of Oslo | JVSRP | Yumi Iwashita | Machine learning for ground traversability analysis from aerial images |
Activity: The project will focus on developing deep learning-based segmentation and path planning. |
Grace, Joshua | CAL POLY STATE UNIVERSITY | JPLYIP | Steven Myint | Simulation for Mars 2020 rover operations |
Activity: This task will extend and test the capabilities of the SSIm framework. Areas this will cover are simulation of sensors and other hardware that interact with flight software, creation of automated tools that make use of SSim, and extensions to the web service that serves SSim to its clients. |
Grossman, Lev | HARVARD UNIVERSITY-HARVARD COLLEGE | JPLSIP | Renaud Detry | Machine vision / machine learning for Oceans Worlds exploration |
Activity: We are looking for a skilled CS student to help us with (1) the acquisition of data issued by our package, and its aggregation into a 3D spatial map, and (2) the development of a cross-modal vent composition model that guides vent exploration and facilitates data visualization. |
Hall, Hunter | UNIVERSITY OF CALIFORNIA-BERKELEY | SURF | Shahrouz Alimo | Cubesat technology – innovations in launch and constellation applications |
Activity: 2019 projects focus on fast development and prototyping. Platforms for the test include High altitude balloons (HAB), UAV, and cubesats. |
Hansen, Johanna | McGill University | JPLSIP | Renaud Detry | Object Localization for Manipulation |
Activity: The student will assist in all or a subset of the following areas, depending on skillset and interest: - Conceptual development: design and implementation of statistical models for characterizing grasp-related processes. - Software development: rewriting research code into high-performance implementations. - Experimental design and realization: Generating training data. Drawing experimental protocols. Integration with robot hardware. Supervising robot experiments. |
Harper, Scott | WEST VIRGINIA UNIVERSITY | JPLYIP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Harris, Lea | GEORGIA INSTITUTE OF TECHNOLOGY | JPLYIP | Aaron Schutte | Modeling and Simulation of Planetary Space Platforms |
Activity: This project involves physics based modeling, simulation, and visualization of autonomous ground vehicles using JPL's DARTS Lab software. |
Hasrouty, Jean Claude | CALIF STATE UNIV-NORTHRIDGE | MSP | Eric Kulczycki | Mars Sample Transfer Testbed Robotic Arm Operations Testing and Software |
Activity: Student will assist in the design, development, and testing of robotic arm control and workspace analysis software for sample retrieval tools and sample cache interface features as part of the development of a Mars Sample Transfer Test-bed development. |
Hatteland, Alexander | ETH Zurich | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Hester, Rockey | MASSACHUSETTS INST OF TECHNOLOGY | JPLSIP | Gene Merewether | Mars Science Helicopter Research and Technology -- SUMMER |
Activity: Based on the prior trade-space studies, sub-system forecasts, and science requirements, we will build a demonstration vehicle capable of addressing all the various mission requirements, while also mimicking the expected dynamic characteristics and overall capabilities of the canonical Mars Science Helicopter design. (i.e. applying velocity limits, acceleration limits, angular rate limits, slew rate limits, thrust limits, etc.) |
Heywood, Tristan | University of Sydney | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Holt, Samuel | LEHIGH UNIVERSITY | JPLYIP-SUM | Adrian Stoica | Innovation to Flight - Coordinated observation in formation flight |
Activity: Prepare a cubesat formation flight with coordinated observation by satellites. Develop the technology for cubesats. Test the cubesats (1-3u) in an experiment with 3 balloons launched around the same time, a few km apart, performing exchange of information, making on-board decisions and performing coordinated observations in flight, transmitting to ground high level data. |
Hosseini Jafari, Arash | UNIVERSITY OF CALIFORNIA-RIVERSIDE | JPLSIP | Abhinandan Jain | Modeling and Simulation of Planetary Space Platforms |
Activity: Multiple projects on physics based modeling, simulation and visualization of robotic systems, space vehicles and planetary environments are available at the DARTS Lab at JPL. |
Huson, Peter | BROWN UNIVERSITY | JPLSIP | Jean-Pierre de la Croix | Mission Executive for Autonomous Unmanned Surface Vehicles |
Activity: The student will contribute to on-going development of improvements to the CARACaS executive module known as TRACE (Traceable Robotic Activity Composer and Executive), which handles complex mission specifications that include, for example, subprocesses. This work may include software development, as well as, testing and integration to evaluate performance. |
Ishigo, Alyssa | UNIVERSITY OF SOUTHERN CALIFORNIA | JPLYIP | Brett Kennedy | In-orbit Capture Mechanism Design for Mars Sample Return |
Activity: The project will consist of designing mechanical devices using CAD software on the computer, ordering and assembling parts for prototyping on a workbench, testing the capture techniques in the lab, and reporting on capture performance and recommendations for future development. |
Iyer, Prashant | CALIFORNIA INSTITUTE OF TECHNOLOGY | JPLGF | Patrick McGarey | Learning and Reasoning about Anchor Points for Tethered Robots |
Activity: The project involves developing algorithms that reason on point-cloud data from Axel to determine 1) where anchors might be, 2) if they are 'safe', and 3) learning from experience after adding anchor points. |
Jensen, Nathan | UNIVERSITY OF NEBRASKA-LINCOLN | Space Grant | Ryan McCormick | Robotic Manipulator Development |
Activity: Develop new space robotic manipulators capabilities by infusing new technologies for future mission concepts. Aspects of the project will include design, prototyping and testing. |
Jung, Sunggoo | KAIST | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Kahraman, Sule | MASSACHUSETTS INST OF TECHNOLOGY | JVSRP | Eric Kulczycki | Mars Sample Transfer Testbed Robotic Arm Operations Testing and Software |
Activity: tudent will assist in the design, development, and testing of technology for sample caches as part of the development of a Mars Sample Transfer Test-bed development. Student will help to evaluate prototypes through operations of the MSTT Test-bed for data collection and demonstration of key functionality for the SRL Concept Mission. Student will take part in Mars Yard Testing with Fetch Rover |
Kant, Nilay | MICHIGAN STATE UNIVERSITY | JVSRP | Jonathan Cameron | DARTS Lab Robotic Vehicle Modeling (Summer 2019) |
Activity: The DARTS/Dshell simulation framework has many software development projects related to constructing and using simulations of robotic vehicles such as spacecraft, rovers, and balloons. Some applications are for planetary missions and some are related to earth-based applications. |
Katsumata, Haruhi | Keio University | JVSRP | Masahiro Ono | MAARS: Machine learning-based Analytics for Automated Rover Systems – Energy |
Activity: The objectives of this task are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability: a capability to maximize the driving distance of a solar-powered rover by analyzing the location-dependent energy consumption and generation from images and by choosing the path and schedule to maximize the energy balance. |
Katz, Joshua | ILLINOIS STATE UNIVERSITY | CSU STAR | Brett Kennedy | In-orbit Capture Mechanism Design for Mars Sample Return |
Activity: The project will consist of designing mechanical devices using CAD software on the computer, ordering and assembling parts for prototyping on a workbench, testing the capture techniques in the lab, and reporting on capture performance and recommendations for future development. |
Kelly, Conlain | UNIVERSITY OF WISCONSIN-MADISON | JPLSIP | Marco Quadrelli | Modeling and Simulation of Planetary Space Platforms |
Activity: Multiple projects on physics based modeling, simulation and visualization of robotic systems, space vehicles and planetary environments are available at the DARTS Lab at JPL. |
Khoo, Norris | UNIVERSITY OF SOUTHERN CALIFORNIA | JPLYIP | Yumi Iwashita | Chevron Tight Rock Project |
Activity: The objective of this project is to develop advanced machine learning (ML) methods to control design and operating choices to optimize oil and gas recovery in tight rock unconventional reservoirs. |
Kikuchi, Yuiko | Keio University | JVSRP | Masahiro Ono | MAARS: Machine learning-based Analytics for Automated Rover Systems – Energy |
Activity: The objectives of this task are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability: a capability to maximize the driving distance of a solar-powered rover by analyzing the location-dependent energy consumption and generation from images and by choosing the path and schedule to maximize the energy balance. |
Kilic, Cagri | WEST VIRGINIA UNIVERSITY | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Kim, Leon | COLUMBIA UNIV SCHOOL ENGIN-UNDERGRA | JPLYIP | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth (everything except JVSRP) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
King, Jonathan | Carnegie Mellon University | NSTRF | Aaron Parness | NSTRF Gripping |
Activity: Technical objectives: 1) Improve proprioception: - Using motion capture, photogrammetry, or encoders for grasp pose estimation. - Vision based spring displacement and F/T Sensors for force estimation. 2) Collect grasp data: - Supplement new and prior grasping experiments with force and pose knowledge. |
Kinney, Mitchell | UNIVERSITY OF MINNESOTA-TWIN CITIES | JPLYIP-SUM | Curtis Padgett | Wide Baseline Stereo |
Activity: The candidate will be assigned a subtask--to produce reliable classification of surface vehicle type so that the autonomy system "knows" what type of navigation response to perform. The task involves learning different class shapes from the imagery and aggregating other contact properties (size, speed, etc.) to make an informed decision. |
Kramer, Andrew | UNIVERSITY OF COLORADO-BOULDER | NSTRF | Michael Wolf | Next Generation Perception for Robotic Exploration of Space and Earth |
Activity: This project is concerned with the problem of robot autonomy for exploration of challenging sensory environments. In this case, the focus components of robot autonomy involve robot localization, environment mapping, motion planning under uncertainty, and machine learning. The project entails developing, implementing, testing, and analyzing algorithms and approaches for robotic perception to meet these challenges. |
Krol, Kyle | Cornell University | JPLYIP | Steven Myint | Fuzzing Mars 2020 flight software |
Activity: This task will apply coverage-guided fuzz testing techniques to the Mars 2020 flight software (including mobility, sample caching, and opportunistic sequence execution planner). |
Kusch, Filippo | ETH Zurich | JVSRP | Marco Quadrelli | Simulation and Testing of Additive Manufacturing Processes for Space Applications |
Activity: This task involves the study of residual stresses of additively manufactured components, leveraging existing 3D manufacturing capabilities in combination with predictive computational tools, addressing stress-relief strategies, as well as physics-based numerical models. The ultimate goal is to accurately predict the lifecycle and performance of metallic parts based on Additive Manufacturing processes. |
Lamarre, Olivier | University of Toronto | JPLGF | Masahiro Ono | MAARS: Machine learning-based Analytics for Automated Rover Systems – Energy Optimal Autonav |
Activity: The objectives of these tasks are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability: a capability to maximize the driving distance of a solar-powered rover by analyzing the location-dependent energy consumption and generation from images and by choosing the path and schedule to maximize the energy balance. |
Lara Tovar, Bryan | Politecnico di Torino | JVSRP | Adrian Stoica | Robot-Oriented Integrated Circuits (RobotICs) |
Activity: Design a family of co-processors dedicated for efficient implementation of computations needed by robotics applications |
Leake, Carl | TEXAS A&M UNIVERSITY | NSTRF | Aaron Schutte | Modeling and Simulation of Planetary Space Platforms |
Activity: This project involves physics based modeling, simulation, and visualization of space vehicles using JPL's DARTS Lab software. |
Lee, Hanseob | KAIST | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Lew, Thomas | ETH Zurich | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Liu, Kevin | UNIVERSITY OF CALIFORNIA (UCLA) | JPLYIP | Arash Kalantari | Fabrication of a crash resilient flying/rolling vehicle |
Activity: The focus of this task will be on exploring different fabrication techniques for a crash resistance flying/rolling vehicle. |
Lizewski, Jacob | GEORGIA INSTITUTE OF TECHNOLOGY | JPLYIP | Travis Brown | Axel Rover Development |
Activity: This project focuses on development and testing of mechanical, electrical and computer systems on the Axel Rover. This includes electrical circuit design, integration, testing, and programming. |
Loi, Matteo | | APT | Adrian Wall | Business Internship |
Activity: |
Luebbers, Matthew | UNIVERSITY OF COLORADO-BOULDER | JPLSIP | Trevor Reed | RSVP - Rover Sequencing and Visualization Program |
Activity: This project is a first step toward moving some of our data visualization tools to an AR/VR platform. Our current tools make use of 3D stereo monitors, which are becoming less common both in availability and support. |
Lytle, Daniel | UNIVERSITY OF SOUTHERN CALIFORNIA | JPLYIP | Cristina Sorice | RIOT: Robotic Inspection Of Tanks |
Activity: Software and avionics support for aerial mobility system: small quadrotor and blimp design |
Maldonado-Contreras, Jairo | CALIF STATE UNIV-LONG BEACH | JPLYIP | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth (everything except JVSRP) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Mazouz, Rayan | Delft University of Technology | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
McCabe, Rebecca | MASSACHUSETTS INST OF TECHNOLOGY | JPLSIP | Eric Kulczycki | Mechanical Design and Testing for Mars Sample Transfer Test bed |
Activity: Student will assist in the design, development, and testing of technology for sample caches as part of the development of a Mars Sample Transfer Test-bed development. |
Miller, Eric | UNIVERSITY OF GEORGIA | | Steven Myint | Simulation for Mars 2020 rover operations |
Activity: This task will extend and test the capabilities of the SSIm framework. Areas this will cover are simulation of sensors and other hardware that interact with flight software, creation of automated tools that make use of SSim, and extensions to the web service that serves SSim to its clients. |
Morad, Steven | UNIVERSITY OF ARIZONA | JPLSIP | Aaron Parness | Grasp and Path Planning for Limbed Robots |
Activity: The student will work with the perception team to define, procure, mount and integrate a sensor package that may include stereo cameras, LIDAR, and other sensors so that the robot can build a local map of its position on the rock wall and identify good locations for the grippers to engage the surface. |
Morra, Daniele | Scuola Superiore Sant'Anna | JVSRP | Brett Kennedy | Tactile Gripper Development |
Activity: Develop tactile sensing, and incorporate it into an end effector to be used on Robosimian. Experimental study about tactile telepresence for remote operation in space and robotics applications at JPL. |
Mote, Mark | GEORGIA INSTITUTE OF TECHNOLOGY | JPLSIP | Amir Rahmani | Spacecraft Swarm Integrated Communications and Control |
Activity: The student will work closely with JPL engineers and depending on need will assist in designing motion-planning algorithms and software implementation, setting up simulation environment, running simulations, and hardware demonstrations. |
Mujtaba, Fawaz | UNIVERSITY OF NEVADA-LAS VEGAS | Space Grant | Roland Brockers | Visual Radar |
Activity: The goal of this project is to develop and implement a method to produce highly accurate online terrain-elevation maps to enable collision free flight in Earth and Mars like environments. The method will be based on 3D point cloud measurements acquired through a stereo camera system onboard a UAS or aircraft. |
Nadan, Paul | FRANKLIN W. OLIN COLLEGE OF ENGINEE | JPLSIP | Jacob Izraelevitz | SQUID (Streamlined Quick-Unfolding Investigation Drone) |
Activity: The intern position would aid in the prototyping, development, and testing of folding multirotors and their launchers. |
Newberry, Felix | UNIVERSITY OF COLORADO-BOULDER | JPLGF | Marco Quadrelli | Modeling and Simulation of Planetary Space Platforms |
Activity: Multiple projects on physics based modeling, simulation and visualization of robotic systems, space vehicles and planetary environments are available at the DARTS Lab at JPL. |
Newbold, Timothy | CALIF STATE POLYTECHNIC UNIV POMONA | JPLYIP | Scott Moreland | Enceldus In Situ Sampling Environmental Chamber Experimentation |
Activity: The task will involve the candidate performing mechanical design, assembly and laboratory testing of prototype sampling systems for application to Enceladus surfaces. This includes design of mechanisms using Solidworks CAD, managing the fabrication of machined parts, and assembly of hardware. Additionally, executing test programs to evaluate sampling systems will be performed. |
Nguyen, Jennifer | WEST VIRGINIA UNIVERSITY | JVSRP | Rohan Thakker | Next Generation Robots and AI for Exploring Space and Earth (JVSRP Rohan) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Nolan, Tui | University of Technology Sydney | JVSRP | Gareth Meirion-Griffith | Design optimization, simulation and field evaluation for mobile robot mobility systems operating on analogue Ocean World terrain |
Activity: To evaluate the efficacy of actively articulated suspension compared with the rocker-bogie mobility system the candidate will assist in running mobility field trials using both types mobility systems. |
Offermanns, Magnus | Alpen-Adria-Universität Klagenfurt | JVSRP | Roland Brockers | Map based localization for micro air vehicles autonomous navigation |
Activity: We will develop and implement a loop closure method for an autonomous micro air vehicle that can be used for both use cases: localization within a pre-existing map (e.g. images from Google Earth), and the detection of a revisit using a local map that is generated on the fly, based on images from on-board cameras. |
Ohi, Nicholas | WEST VIRGINIA UNIVERSITY | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Olsen, Nicholas | UNIVERSITY OF WISCONSIN-MADISON | JPLSIP | Marco Quadrelli | Modeling and Simulation of Planetary Space Platforms |
Activity: Multiple projects on physics based modeling, simulation and visualization of robotic systems, space vehicles and planetary environments are available at the DARTS Lab at JPL. |
Palieri, Matteo | Polytechnic University of Bari | NSTRF | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Papais, Sandro | McGill University | JVSRP | Benjamin Hockman | Systems Engineering study of an Inter-Planetary CubeSat |
Activity: The objective of this project is to design an autonomous inter-planetary CubeSat and perform basic systems engineering to size the various subsystems required for autonomous operations around small bodies (e.g. propulsion, ADCS, and imaging systems). |
Paparella, Fabio | Politecnico di Milano | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
Park, Hyoshin | North Carolina A&T State University | MSP | Masahiro Ono | Onboard Analytics for Mars Exploration Enabled by High Performance Spaceflight Computing |
Activity: The objectives of this task are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability |
Prasanna, Sahana | Scuola Superiore Sant'Anna | JVSRP | Brett Kennedy | Tactile Gripper Development |
Activity: Develop tactile sensing, and incorporate it into an end effector to be used on Robosimian. Experimental study about tactile telepresence for remote operation in space and robotics applications at JPL. |
Primstad, PÃ¥l | University of Oslo | JVSRP | Marco Quadrelli | Improving rover exploration capabilities by learning from humans |
Activity: The objective of the project is to Improving rover exploration capabilities by learning from humans. |
Quan, Justin | UNIVERSITY OF CALIFORNIA (UCLA) | JPLYIP | Spencer Backus | Perching Helicopters |
Activity: Design and develop gripper and landing gear of the perching gripper using rapid-prototyping tools and to develop and run testbeds to evaluate the gripper's performance in various conditions |
Radmanesh, Reza | UNIVERSITY OF CINCINNATI | JPLYIP | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth (everything except JVSRP) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Rafizadeh, Ramin | University of Maryland College Park | JPLSIP | Saptarshi Bandyopadhyay | Building Lunar Crater Radio Telescope (LCRT) using Autonomous Robots |
Activity: Technical challenges to be addressed are as follows: We aim to survey and select suitable craters on the far-side of the Moon for LCRT. The crater depth must be comparable to the crater radius to enable a feasible spherical-cap wire-mesh with the reflector’s focus within the crater. Moreover, we would like to avoid big boulder/out-crops and optimize SNR-to-weight ratio. |
Rankin, Ian | NEW MEXICO STATE UNIVERSITY | JPLSIP | Aaron Parness | Grasp and Path Planning for Limbed Robots |
Activity: The student will work with the perception team to define, procure, mount and integrate a sensor package that may include stereo cameras, LIDAR, and other sensors so that the robot can build a local map of its position on the rock wall and identify good locations for the grippers to engage the surface. |
Riccobono, Dario | Politecnico di Torino | JVSRP | Brett Kennedy | Enceladus Surface Sampling System Development |
Activity: The task involves learning about the tool/material interaction problem as it relates to Enceladus surface sampling, develop test apparatus to study sampling mechanics, conduct experimentation, perform analysis/simulation and make recommendations for design as an outcome of the work. |
Ridderbusch, Steffen | University of Oxford | JVSRP | Aaron Parness | Low-DOF, high capability, mobility system analysis |
Activity: The task involves a mathematical study into optimizing the design of multi-modal systems. The results will be used to pursue "next generation" mobility platforms in future studies. |
Ritter, Mikela | UNIVERSITY OF CALIFORNIA (UCLA) | NSTRF | Aaron Parness | NSTRF Flexible Electrostatics |
Activity: The goal of this study is to manufacture stretchable EA pads for use in a space environment. |
Rothenberger, Noah | ETH | JPLYIP | Steven Myint | Simulation for Mars 2020 rover operations |
Activity: This task will extend and test the capabilities of the SSIm framework. Areas this will cover are simulation of sensors and other hardware that interact with flight software, creation of automated tools that make use of SSim, and extensions to the web service that serves SSim to its clients. |
Sajjadi, Seyed | CALIF STATE UNIV-NORTHRIDGE | JPLYIP | Jean-Pierre de la Croix | On-board Autonomy for a Small, Foldable Robot |
Activity: The student will contribute to on-going development of autonomy functionality for PUFFER (e.g., motion control, state estimation, etc.). |
Sarabu, Hemanth | GEORGIA INSTITUTE OF TECHNOLOGY | JPLGF | Masahiro Ono | MAARS: Machine learning-based Analytics for Automated Rover Systems – Energy Optimal Autonav |
Activity: The objectives of these tasks are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability: a capability to maximize the driving distance of a solar-powered rover by analyzing the location-dependent energy consumption and generation from images and by choosing the path and schedule to maximize the energy balance. |
Scheiber, Martin | TEXAS A&M UNIVERSITY | JVSRP | Roland Brockers | VIO Initialization in unknown environments |
Activity: The goal of this project is to develop and implement a method to initialize an existing vision-based state estimation filter for a particular UAS deployment in a “throw and go” scenario where information before and after the throw is used for initialization. |
Shi, Tiffany | STANFORD UNIVERSITY | SURF | Yang Cheng | Mars 2020 LVS Field Test Support |
Activity: Analyze field test data in support of Mars 2020 LVS validation. This includes reporting on LVS performance and identifying any issues with the data collection and software. |
Slavick, Eitan | UNIVERSITY OF CALIFORNIA-BERKELEY | JPLYIP | Aaron Parness | Perching Helicopters |
Activity: -Design and develop gripper and landing gear of the perching gripper -Prototype gripper using rapid-prototyping tools for testing and functional demonstration. -Develop testbed and run tests to evaluate the gripper |
So, Charlson | CALIF STATE POLYTECHNIC UNIV POMONA | JPLYIP | Deegan Atha | Deep Learning and Data Management for Maritime Applications |
Activity: This project would entail three main components. The first is to develop a database of images and their ground truth data and tools to interact with this database. The second would be to experiment with different deep learning approaches on this database. The third would be to develop and augment existing evaluation tools to report the performance of these different algorithms. |
Stephens, Ravi | University of Sydney | NSTRF | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Sternklar-Davis, Benjamin | CORNELL UNIVERSITY | JPLSIP | Gene Merewether | Mars Science Helicopter Research and Technology -- SUMMER |
Activity: Based on the prior trade-space studies, sub-system forecasts, and science requirements, we will build a demonstration vehicle capable of addressing all the various mission requirements, while also mimicking the expected dynamic characteristics and overall capabilities of the canonical Mars Science Helicopter design. (i.e. applying velocity limits, acceleration limits, angular rate limits, slew rate limits, thrust limits, etc.) |
Suehr, Sean | NORTH CAROLINA A&T STATE UNIV | MSP | Masahiro Ono | Onboard Analytics for Mars Exploration Enabled by High Performance Spaceflight Computing |
Activity: The objectives of this task are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability |
Takahashi, Ryohei | The University of Tokyo | JVSRP | Masahiro Ono | Research on Logistics of Multi-vehicle Mars Exploration using MTTT |
Activity: The objectives of this task are to perform basic researches on 1) enhancing the capabilities of MTTT by integrating ground-based and orbiter-based terrain classification and 2) system engineering study on the logistics of future unmanned and manned Mars exploration using a heterogeneous team of robots |
Terry, Edward | CARNEGIE MELLON UNIVERSITY | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Theodorou, Evangelos | GEORGIA INSTITUTE OF TECHNOLOGY | JSFRP-Faculty | Olivier Toupet | Machine Learning for Planetary Exploration |
Activity: This project is concerned with the problem of robot autonomy and machine learning. The faculty will contribute to research on motion planning under uncertainty and machine learning for space applications. |
Thomsen, Max | MASSACHUSETTS INST OF TECHNOLOGY | JPLSIP | Hari Nayar | Cable Winch Design |
Activity: Design a compact winch with enclosed motor for controlling and sensing cable length for a robotic application. |
Tighe, Katherine | DUKE UNIVERSITY | Space Grant | Eric Kulczycki | Mechanical Design and Testing for Mars Sample Transfer Test bed |
Activity: Student will assist in the design, development, and testing of technology for sample caches as part of the development of a Mars Sample Transfer Test-bed development. |
Tordesillas, Jesus | MASSACHUSETTS INST OF TECHNOLOGY | JPLGF | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth (everything except JVSRP) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Touma, Thomas | RMIT | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Trapp, Elliot | DEPAUL UNIVERSITY | JPLYIP | Jonathan Cameron | DARTS Lab Software Development CS (Spring 2019) |
Activity: The DARTS/Dshell simulation framework has many software development projects in simulation capabilities, visualization, user interfaces, data management, web services, and more. Students will work with the DARTS Lab team in the development, improvement, and adaptation of software tools for aerospace simulation applications. |
Ubellacker, Samuel | MASSACHUSETTS INST OF TECHNOLOGY | JPLSIP | Alexander Brinkman | Robotic Sampling for Icy Bodies |
Activity: As new sampling designs and approaches are developed, the robotic software control system must be updated to meet the needs of the project. |
Van Crey, Nikko | UNIVERSITY OF MICHIGAN - ANN ARBOR | JPLYIP | Donald Ruffatto | REACCH – Reactive Electro-Adhesive Capture Cloth |
Activity: The selected student will support the development and fabrication of prototype deployment mechanisms for the REACCH material to be used on a gripper assembly. |
Vasilev, Andrei | UNIVERSITY OF CALIFORNIA-IRVINE | JPLSIP | Alexander Brinkman | Robotics Modeling, Analyses, Manipulation and Mobility for In Space Assembly |
Activity: The candidate will develop simulations of the expected interactions between the robot and mating components. Also develop motion plans and interpret sensor data as needed to achieve the desired robotic behaviors with the end goal of a hardware demonstration. |
Vavra, Stephanie | UNIVERSITY OF NEBRASKA-LINCOLN | Space Grant | Ryan McCormick | Robotic Manipulator Development |
Activity: Develop new space robotic manipulators capabilities by infusing new technologies for future mission concepts. Aspects of the project will include design, prototyping and testing. |
Vertovec, Nikolaus | ETH Zurich | JPLYIP | Steven Myint | Simulation for Mars 2020 rover operations |
Activity: This task will extend and test the capabilities of the SSIm framework. Areas this will cover are simulation of sensors and other hardware that interact with flight software, creation of automated tools that make use of SSim, and extensions to the web service that serves SSim to its clients. |
Villalobos, Christopher | CALIF STATE POLYTECHNIC UNIV POMONA | JPLYIP | Spencer Backus | In-Space Assembly System Developmen |
Activity: A current testbed and interface prototypes incorporating a mobile manipulator and precision kinematic joints have been developed to evaluate strategies for in-space assembly and repair of satellites. Students are needed to support the testbed and continue development and testing of the robotic system, precision joints, and other systems integral to the modular serviceable satellite concept. |
Wagner, Caleb | WORCESTER POLYTECHNIC INSTITUTE | JPLSIP | Joshua Vander Hook | Technology Archive and Autonomy Catalog |
Activity: This project will take preliminary data sets, collected by hand over many hours and create a homogeneous front-end for a heterogeneous set of back-end data sources. |
Warren, Patrick | Taylor University | JPLSIP | Alexander Brinkman | Develop Control software for EtherCAT-connected Avionics |
Activity: This task is to develop a stand alone software system that is capable of running a minimum set of hardware and sensors needed by JPL research testbeds. The task should considering open source alternatives for our applications and end by demonstrating prototype solutions on various computers and operating systems. |
Wylie, Brittany | CALIFORNIA INSTITUTE OF TECHNOLOGY | JPLYIP | Brett Kennedy | Design and Testing of a Modular Satellite |
Activity: In order to understand how a modular satellite can be assembled and serviced, we need to design, build, and test the enabling technologies. The student will help generate models of existing system components and design and model new components of the system. In addition, the student will help assemble and test the components. |
Zanutto, Nicolas | Politecnico di Milano | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
Zhao, Steve | EAST LOS ANGELES COLLEGE | SIRI-Spring | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Aggarwal, Rajan | UNIV OF ILLINOIS @ URBANA-CHAMPAIGN | JPLSIP | Scott Moreland | Enceladus Lander In-situ Sampler Developement |
Activity: The internship task will involve the candidate performing mechanical design, assembly and laboratory testing of prototype sampling systems for application to Enceladus surfaces. |
Ahmad, Adeel | COLUMBIA UNIV SCHOOL ENGIN-UNDERGRA | JPLSIP | Scott Moreland | Enceladus Lander In-situ Sampler Developement |
Activity: The internship task will involve the candidate performing mechanical design, assembly and laboratory testing of prototype sampling systems for application to Enceladus surfaces. |
Aiazzi, Carolina | Politecnico di Milano | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
Alatur, Nikhilesh Athresh | ETH Zurich | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Alfeerawi, Dania | UNIVERSITY OF CALIFORNIA-IRVINE | MSP | Eric Kulczycki | Mechanical Design and Testing for Mars Sample Transfer Test bed |
Activity: Student will assist in the design, development, and testing of robotic arm control and workspace analysis software for sample retrieval tools and sample cache interface features as part of the development of a Mars Sample Transfer Test-bed development. |
Archanian, Avak | UNIVERSITY OF CALIFORNIA-SAN DIEGO | JPLYIP-SUM | Ara Kourchians | Robosimian Rebuild |
Activity: To design, build, test, and install a new power management system into Robosimian. The new system will augment the robots functionality by monitoring and reporting the subsystem voltages and currents, and will add the ability to buffer energy for large current demands during strenuous motions. |
Aucone, Emanuele | University of Pisa | JVSRP | Patrick McGarey | Enhancing mobility and control of the DuAxel rover system |
Activity: This project will specifically look at developing rover control algorithms that will enhance the overall mobility of the DuAxel system on different types of terrain. Currently mobility is somewhat crude due to Axel’s grouser style wheels. |
Banks, Christopher | GEORGIA INSTITUTE OF TECHNOLOGY | JPLSIP | Amir Rahmani | Hazard Avoidance for Unmanned Vessels with a Towed Sensor |
Activity: The student will be working closely with a team of JPL engineers and will contribute to the project as needed in design and implementation of motion planning and estimation algorithms, running simulations, improving simulation software, and analyzing results. |
Bao, Richard | CALIFORNIA INSTITUTE OF TECHNOLOGY | SURF | Roland Brockers | Visual Radar |
Activity: The goal of this project is to develop and implement a method to produce highly accurate online terrain-elevation maps to enable collision free flight in Earth and Mars like environments. The method will be based on 3D point cloud measurements acquired through a stereo camera system onboard a UAS or aircraft. |
Beard, Jared | WEST VIRGINIA UNIVERSITY | JVSRP | Rohan Thakker | Next Generation Robots and AI for Exploring Space and Earth (JVSRP Rohan) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Bechini, Michele | Politecnico of Milan | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
Ben Miled, Meriem | ETH zurich | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Berman, Jonathan | HARVARD UNIVERSITY | JPLSIP | Marco Quadrelli | Terrain Registration for Rover Operations |
Activity: The Robotics Interfaces and Visualization group seeks a summer intern with experience in 3D visualization, computational geometry, point cloud processing, and machine learning to work on a new pipeline for automatic terrain registration. The student will develop a new pipeline for point set registration, which will become part of the RSVP (Rover Sequencing and Visualization Program) suite of tools. |
Bernhard, Benjamin | UNIVERSITY OF NOTRE DAME | JPLYIP-SUM | Amir Rahmani | Infrastructure and Algorithms for Spacecraft Swarm Coordination |
Activity: The student will work closely with JPL engineers and depending on project needs will assist in software implementation of algorithms, designing and setting up simulation environment, running simulations, and hardware demonstrations. |
Bhanji, Alisha | University of Waterloo | JVSRP | Aaron Parness | Electrostatic Adhesive Gripper |
Activity: The selected student will work to improve on the adhesive perching mechanism to increase the performance and decrease the weight of the system. Additional designs will complement the gripper with the use of electrostatics and gecko-like adhesives. The student is expected to mock up designs using spare hardware, develop detailed CAD models of new prototypes, and oversee the fabrication and assembly of these designs. |
Bochicchio, Alfredo | Sant'Anna University | JVSRP | Brett Kennedy | Tactile Gripper Development |
Activity: Develop tactile sensing, and incorporate it into an end effector to be used on Robosimian. Experimental study about tactile telepresence for remote operation in space and robotics applications at JPL. |
Boroson, Elizabeth | UNIVERSITY OF SOUTHERN CALIFORNIA | NSTRF | Jean-Pierre de la Croix | Learning Coordination for Multi-Rover Planetary Exploration - NSTRF |
Activity: The development of algorithms for coordination for a group of heterogeneous robots exploring, mapping, and operating in a previously unknown environment during planetary exploration. |
Boscolo Camiletto, Andrea | Scuola Superiore Sant'Anna | JVSRP | Brett Kennedy | Tactile Gripper Development |
Activity: Develop tactile sensing, and incorporate it into an end effector to be used on Robosimian. Experimental study about tactile telepresence for remote operation in space and robotics applications at JPL. |
Bowkett, Joseph | CALIFORNIA INSTITUTE OF TECHNOLOGY | JVSRP | Brandon Rothrock | Learning post-conditions for manipulation tasks |
Activity: Assist in all or a subset of the following areas, depending on skillset and interest: - Conceptual development: design and implementation of statistical models for characterizing grasp-related processes. - Software development: rewriting research code into high-performance implementations. - Experimental design and realization: Generating training data. Drawing experimental protocols. Integration with robot hardware including a Kuka iiwa with three-finger robotiq gripper, and Robosimian. Supervising robot experiments. - Publication: summarizing our results in scientific publications. |
Bretl, Evan | GEORGIA INSTITUTE OF TECHNOLOGY | JPLSIP | Jean-Pierre de la Croix | On-board Autonomy for a Small, Foldable Robot |
Activity: The student will contribute to on-going development of autonomy functionality for PUFFER (e.g., motion control, state estimation, etc.). |
Buebel, Spencer | VIRGINIA POLYTECH INST & STATE UNIV | JPLYIP | Joshua Vander Hook | Robotic Edge Computing for Mars |
Activity: This project involves helping JPL researchers and engineers develop new sensor network technologies and distributed algorithms for Mars and Lunar exploration, with a strong focus on communication network optimization and software engineering. The ideal candidate will also handle the hardware integration with a network of small mobile robots. |
Camargo Forero, Leonardo | Technical University of Catalonia | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Camasmie, Paulo | CARNEGIE MELLON UNIVERSITY | JPLSIP | Gene Merewether | Mars Science Helicopter Research and Technology -- SUMMER |
Activity: Based on the prior trade-space studies, sub-system forecasts, and science requirements, we will build a demonstration vehicle capable of addressing all the various mission requirements, while also mimicking the expected dynamic characteristics and overall capabilities of the canonical Mars Science Helicopter design. (i.e. applying velocity limits, acceleration limits, angular rate limits, slew rate limits, thrust limits, etc.) |
Cameron, Jessica | CALIF STATE POLYTECHNIC UNIV POMONA | JPLYIP | Brett Kennedy | In-orbit Capture Mechanism Design for Mars Sample Return |
Activity: The project will consist of designing mechanical devices using CAD software on the computer, ordering and assembling parts for prototyping on a workbench, testing the capture techniques in the lab, and reporting on capture performance and recommendations for future development. |
Cauligi, Abhishek | STANFORD UNIVERSITY | NSTRF | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Chase, Timothy | "SUNY BUFFALO State College, New York " | JPLYIP | Steven Myint | Simulation for Mars 2020 rover operations |
Activity: This task will extend and test the capabilities of the SSIm framework. Areas this will cover are simulation of sensors and other hardware that interact with flight software, creation of automated tools that make use of SSim, and extensions to the web service that serves SSim to its clients. |
Chen, Irene | COLUMBIA UNIVERSITY | JPLSIP | Alexander Brinkman | Develop Control software for EtherCAT-connected Avionics |
Activity: This task is to develop a stand alone software system that is capable of running a minimum set of hardware and sensors needed by JPL research testbeds. The task should considering open source alternatives for our applications and end by demonstrating prototype solutions on various computers and operating systems. |
Chiu, Chi | CALIF STATE POLYTECHNIC UNIV POMONA | JPLYIP | Brett Kennedy | In-orbit Capture Mechanism Design for Mars Sample Return |
Activity: The project will consist of designing mechanical devices using CAD software on the computer, ordering and assembling parts for prototyping on a workbench, testing the capture techniques in the lab, and reporting on capture performance and recommendations for future development. |
Contreras, Mario | MASSACHUSETTS INST OF TECHNOLOGY | JPLSIP | Aaron Parness | LLAMA Robot Mechanical |
Activity: The intern will serve as a test engineer for the robot. Will also observe tests, analyze data, design & fabricate any ground support equipment that is needed, and contribute to the redesign discussions based on robot performance. |
Culbertson, Preston | STANFORD UNIVERSITY | NSTRF | Saptarshi Bandyopadhyay | Technology Development for In-Space Assembly Applications - NSTRF |
Activity: The objective of this effort is to mathematically state the assembly sequencing problem for ISA, which captures all the constraints and complexities of real-world situations, and develop efficient mathematical techniques to solve this problem. We propose to pose the assembly sequencing problem for ISA as a mixed-integer linear program (MILP) using a number of novel mathematical techniques, to take advantage of fast MILP solvers. |
Daddi, Guglielmo | Politecnico di Torino | JVSRP | Aaron Parness | Paschen breakdown mitigration strategies for high-voltage systems on Mars |
Activity: The intern will work with the task PI, Texas A&M University, and Honeybee Robotics to understand the principal challenges of multi-kV systems on Mars (required for pulsed plasma). The rarefied, CO2 atmosphere presents a challenge in the context of voltage breakdown and unintentional arcing. The intern will work to provide recommended mitigation strategies and provide a path forward for continued research. |
Daniel, Nathan | GEORGIA INSTITUTE OF TECHNOLOGY | JPLSIP | Travis Brown | Axel Rover Development |
Activity: This project focuses on development and testing of electrical, mechanical, and computer systems on the Axel rover. This includes electrical systems integration, testing, and programming. Student will also be involved in the development of a tethered autonomy pipeline. |
de Freitas Bart, Ryan | MASSACHUSETTS INST OF TECHNOLOGY | JVSRP | Raymond Ma | Testbed Support for In-Space Assembly |
Activity: A current testbed incorporating a mobile manipulator has been developed to evaluate strategies for in-space assembly and repair of satellites. Students are needed to support the testbed in terms of hardware maintenance, testing support, and further testbed development. |
DeVore, Wesley | UNIVERSITY OF CALIFORNIA-RIVERSIDE | MSP | Alexander Brinkman | Mars Sample Transfer Testbed Robotic Arm Operations Testing and Software |
Activity: Student will assist in the design, development, and testing of robotic arm control and workspace analysis software for sample retrieval tools and sample cache interface features as part of the development of a Mars Sample Transfer Test-bed development. |
Dhaouadi, Wassim | Swiss Federal Institute of Technology Zurich | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. There are also opportunities in the development and application of the basic multibody dynamics and control algorithms used in these real-time simulations. |
Di, Julia | STANFORD UNIVERSITY | NSTRF | Jaakko Karras | Elastic and Compliant Sensors for PUFFER |
Activity: This project will evaluate what can be done to sense the folded chassis state with existing off-the-shelf sensors and compare those to the performance that can be achieved with motor-derived estimation. Off-the-shelf resistive and/or capacitive flex/stretch sensors will be retro-fitted onto existing PUFFER prototypes, and then characterized for sensing performance (accuracy, repeatability, bandwidth, etc) as well as factors such as durability, ease of integration, etc. |
Dominguez, Mitchell | CORNELL UNIVERSITY | JPLYIP | Jonathan Cameron | DARTS Lab Software Development ME (Spring 2019) |
Activity: The DARTS/Dshell simulation framework has many software development projects in simulation capabilities, visualization, user interfaces, data management, web services, and more. Students will work with the DARTS Lab team in the development, improvement, and adaptation of software tools for aerospace simulation applications. |
Domnik, Matthias | Fachhochschule Dortmund | JVSRP | Roland Brockers | 3D Perception for Aerial Terrain Reconstruction |
Activity: The goal of this project is to develop and implement a method to produce highly accurate online terrain maps to enable collision free safe landing in Earth and Mars like environments. |
Dor, Harel | CALIFORNIA INSTITUTE OF TECHNOLOGY | SURF | Jeff Delaune | Vision-Based Navigation for a Mars Science Helicopter |
Activity: The participant will join a team of 2 JPL employees and 1 postdoc in the design, implementation and testing of a novel vision-based navigation algorithm tailored for robust performance in Mars-like conditions. The technical plan can involve image processing, computer vision, state estimation or sensor fusion based on the candidate's profile, interest and dates of availability. |
Duong, Van | UNIVERSITY OF MINNESOTA-TWIN CITIES | Space Grant | Adrian Stoica | Interfaces for Enhanced Robotic Operability |
Activity: Enhance existing Mars 2020- SCS operator interfaces, and expand the modalities of interaction. |
D'urso, Giovanni | University of Technology Sydney | JVSRP | Gareth Meirion-Griffith | Design optimization, simulation and field evaluation for mobile robot mobility systems operating on analogue Ocean World terrain |
Activity: To evaluate the efficacy of actively articulated suspension compared with the rocker-bogie mobility system the candidate will assist in running mobility field trials using both types mobility systems. |
Ebadi, Kamak | SANTA CLARA UNIVERSITY | JPLYIP | Brett Kennedy | Mobile Autonomous Robotic Swarm |
Activity: Integrate the gas sensor into the perception and mapping system. |
Elliott, David | "CORNELL UNIVERSITY " | NSTRF | Issa Nesnas | Tumbling/Rolling Mobility with Polyhedral Rover |
Activity: The student will investigate polyhedral rovers that does not use wheels, but instead rolls around from side to side. A roll from one side to another is defined as a step. The rover uses one or more Single-Gimbal Center Control Moment Gyroscopes to move. |
Emmei, Tomoki | the University of Tokyo | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Escobar, Daniel | UNIV OF MARYLAND AT COLLEGE PARK | JPLSIP | Gene Merewether | Mars Science Helicopter Research and Technology -- SUMMER |
Activity: Based on the prior trade-space studies, sub-system forecasts, and science requirements, we will build a demonstration vehicle capable of addressing all the various mission requirements, while also mimicking the expected dynamic characteristics and overall capabilities of the canonical Mars Science Helicopter design. (i.e. applying velocity limits, acceleration limits, angular rate limits, slew rate limits, thrust limits, etc.) |
Faccani, Matteo | Scuola Superiore Sant'Anna-Università di Pisa | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
Falk, Hailey | UNIVERSITY OF CALIFORNIA-DAVIS | MSP | Eric Kulczycki | Mechanical Design and Testing for Mars Sample Transfer Test bed |
Activity: Student will assist in the design, development, and testing of technology for sample caches as part of the development of a Mars Sample Transfer Test-bed development. Student will help to evaluate prototypes through operations of the MSTT Test-bed for data collection and demonstration of key functionality for the SRL Concept Mission. Student will take part in Mars Yard Testing with Fetch Rover. |
Fan, David | GEORGIA INSTITUTE OF TECHNOLOGY | JPLYIP | Rohan Thakker | Next Generation Autonomous Robots for Exploring Space and Earth - Morrell |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Ferrini, Lorenzo | University of Pisa | | Brett Kennedy | Tactile Gripper Development |
Activity: Develop tactile sensing, and incorporate it into an end effector to be used on Robosimian. Experimental study about tactile telepresence for remote operation in space and robotics applications at JPL. |
Fertel, Miles | HARVARD UNIVERSITY-HARVARD COLLEGE | JPLSIP | Steven Myint | Fuzzing Mars 2020 flight software |
Activity: This task will apply coverage-guided fuzz testing techniques to the Mars 2020 flight software (including mobility, sample caching, and opportunistic sequence execution planner). |
Freeman, Martin | STANFORD UNIVERSITY | JPLYIP | Michael Wolf | Sensor network development for Mars exploration |
Activity: This project involves helping JPL reserachers and engineers develop new sensor network technologies and distributed algorithms for Mars and Lunar exploration, with a strong focus on communication network optimization and software engineering. |
Frye, Alex | FRANKLIN W. OLIN COLLEGE OF ENGINEE | JPLYIP | Aaron Parness | Volcanic Gas Collection |
Activity: Learning and Reasoning about Anchor Points for Tethered Robots |
Funabiki, Nobuhiro | The University of Tokyo | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Gatto, Joseph | COLUMBIA UNIV SCHOOL GENERAL STUDIE | JPLSIP | Yumi Iwashita | Chevron Tight Rock Project |
Activity: The project will focus on developing deep learning-based methods to predict oil/gas production. |
Georgescu, Leonardo | UNIVERSITY OF NEVADA-LAS VEGAS | Space Grant | Travis Brown | Axel Rover Development |
Activity: This project focuses on development and testing of mechanical, electrical and computer systems on the Axel Rover. This includes electrical circuit design, integration, testing, and programming. |
Ginoya, Manit | University of Ottawa | JVSRP | Hari Nayar | Modeling and Simulation of BALLET |
Activity: Develop a physics-based dynamics model of BALLET (Balloon Locomotion for Extreme Terrain) and perform simulations of BALLET traversing realistic terrain. |
Ginting, Muhammad Fadhil | ETH Zürich | NSTRF | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Glassner, Samantha | NORTHEASTERN UNIVERSITY | JPLYIP | Spencer Backus | System development for In-Space Assembly |
Activity: Students will support the testbed and continue development and testing of the robotic system, precision joints, and other systems integral to the modular serviceable satellite concept. |
Glick, Paul | UNIVERSITY OF CALIFORNIA-SAN DIEGO | NSTRF | Donald Ruffatto | Extending Controllable Adhesive Technologies to Irregular Surfaces with Soft Robotic Actuation |
Activity: The student will work to integrate current gecko-like adhesives developed at JPL with the growing field of soft robotics while addressing the challenges of utilizing soft robotic mechanisms in space. |
Gozoev, Akhsarbek | University of Oslo | JVSRP | Yumi Iwashita | Machine learning for ground traversability analysis from aerial images |
Activity: The project will focus on developing deep learning-based segmentation and path planning. |
Grace, Joshua | CAL POLY STATE UNIVERSITY | JPLYIP | Steven Myint | Simulation for Mars 2020 rover operations |
Activity: This task will extend and test the capabilities of the SSIm framework. Areas this will cover are simulation of sensors and other hardware that interact with flight software, creation of automated tools that make use of SSim, and extensions to the web service that serves SSim to its clients. |
Grossman, Lev | HARVARD UNIVERSITY-HARVARD COLLEGE | JPLSIP | Renaud Detry | Machine vision / machine learning for Oceans Worlds exploration |
Activity: We are looking for a skilled CS student to help us with (1) the acquisition of data issued by our package, and its aggregation into a 3D spatial map, and (2) the development of a cross-modal vent composition model that guides vent exploration and facilitates data visualization. |
Hall, Hunter | UNIVERSITY OF CALIFORNIA-BERKELEY | SURF | Shahrouz Alimo | Cubesat technology – innovations in launch and constellation applications |
Activity: 2019 projects focus on fast development and prototyping. Platforms for the test include High altitude balloons (HAB), UAV, and cubesats. |
Hansen, Johanna | McGill University | JPLSIP | Renaud Detry | Object Localization for Manipulation |
Activity: The student will assist in all or a subset of the following areas, depending on skillset and interest: - Conceptual development: design and implementation of statistical models for characterizing grasp-related processes. - Software development: rewriting research code into high-performance implementations. - Experimental design and realization: Generating training data. Drawing experimental protocols. Integration with robot hardware. Supervising robot experiments. |
Harper, Scott | WEST VIRGINIA UNIVERSITY | JPLYIP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Harris, Lea | GEORGIA INSTITUTE OF TECHNOLOGY | JPLYIP | Aaron Schutte | Modeling and Simulation of Planetary Space Platforms |
Activity: This project involves physics based modeling, simulation, and visualization of autonomous ground vehicles using JPL's DARTS Lab software. |
Hasrouty, Jean Claude | CALIF STATE UNIV-NORTHRIDGE | MSP | Eric Kulczycki | Mars Sample Transfer Testbed Robotic Arm Operations Testing and Software |
Activity: Student will assist in the design, development, and testing of robotic arm control and workspace analysis software for sample retrieval tools and sample cache interface features as part of the development of a Mars Sample Transfer Test-bed development. |
Hatteland, Alexander | ETH Zurich | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Hester, Rockey | MASSACHUSETTS INST OF TECHNOLOGY | JPLSIP | Gene Merewether | Mars Science Helicopter Research and Technology -- SUMMER |
Activity: Based on the prior trade-space studies, sub-system forecasts, and science requirements, we will build a demonstration vehicle capable of addressing all the various mission requirements, while also mimicking the expected dynamic characteristics and overall capabilities of the canonical Mars Science Helicopter design. (i.e. applying velocity limits, acceleration limits, angular rate limits, slew rate limits, thrust limits, etc.) |
Heywood, Tristan | University of Sydney | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Holt, Samuel | LEHIGH UNIVERSITY | JPLYIP-SUM | Adrian Stoica | Innovation to Flight - Coordinated observation in formation flight |
Activity: Prepare a cubesat formation flight with coordinated observation by satellites. Develop the technology for cubesats. Test the cubesats (1-3u) in an experiment with 3 balloons launched around the same time, a few km apart, performing exchange of information, making on-board decisions and performing coordinated observations in flight, transmitting to ground high level data. |
Hosseini Jafari, Arash | UNIVERSITY OF CALIFORNIA-RIVERSIDE | JPLSIP | Abhinandan Jain | Modeling and Simulation of Planetary Space Platforms |
Activity: Multiple projects on physics based modeling, simulation and visualization of robotic systems, space vehicles and planetary environments are available at the DARTS Lab at JPL. |
Huson, Peter | BROWN UNIVERSITY | JPLSIP | Jean-Pierre de la Croix | Mission Executive for Autonomous Unmanned Surface Vehicles |
Activity: The student will contribute to on-going development of improvements to the CARACaS executive module known as TRACE (Traceable Robotic Activity Composer and Executive), which handles complex mission specifications that include, for example, subprocesses. This work may include software development, as well as, testing and integration to evaluate performance. |
Ishigo, Alyssa | UNIVERSITY OF SOUTHERN CALIFORNIA | JPLYIP | Brett Kennedy | In-orbit Capture Mechanism Design for Mars Sample Return |
Activity: The project will consist of designing mechanical devices using CAD software on the computer, ordering and assembling parts for prototyping on a workbench, testing the capture techniques in the lab, and reporting on capture performance and recommendations for future development. |
Iyer, Prashant | CALIFORNIA INSTITUTE OF TECHNOLOGY | JPLGF | Patrick McGarey | Learning and Reasoning about Anchor Points for Tethered Robots |
Activity: The project involves developing algorithms that reason on point-cloud data from Axel to determine 1) where anchors might be, 2) if they are 'safe', and 3) learning from experience after adding anchor points. |
Jensen, Nathan | UNIVERSITY OF NEBRASKA-LINCOLN | Space Grant | Ryan McCormick | Robotic Manipulator Development |
Activity: Develop new space robotic manipulators capabilities by infusing new technologies for future mission concepts. Aspects of the project will include design, prototyping and testing. |
Jung, Sunggoo | KAIST | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Kahraman, Sule | MASSACHUSETTS INST OF TECHNOLOGY | JVSRP | Eric Kulczycki | Mars Sample Transfer Testbed Robotic Arm Operations Testing and Software |
Activity: tudent will assist in the design, development, and testing of technology for sample caches as part of the development of a Mars Sample Transfer Test-bed development. Student will help to evaluate prototypes through operations of the MSTT Test-bed for data collection and demonstration of key functionality for the SRL Concept Mission. Student will take part in Mars Yard Testing with Fetch Rover |
Kant, Nilay | MICHIGAN STATE UNIVERSITY | JVSRP | Jonathan Cameron | DARTS Lab Robotic Vehicle Modeling (Summer 2019) |
Activity: The DARTS/Dshell simulation framework has many software development projects related to constructing and using simulations of robotic vehicles such as spacecraft, rovers, and balloons. Some applications are for planetary missions and some are related to earth-based applications. |
Katsumata, Haruhi | Keio University | JVSRP | Masahiro Ono | MAARS: Machine learning-based Analytics for Automated Rover Systems – Energy |
Activity: The objectives of this task are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability: a capability to maximize the driving distance of a solar-powered rover by analyzing the location-dependent energy consumption and generation from images and by choosing the path and schedule to maximize the energy balance. |
Katz, Joshua | ILLINOIS STATE UNIVERSITY | CSU STAR | Brett Kennedy | In-orbit Capture Mechanism Design for Mars Sample Return |
Activity: The project will consist of designing mechanical devices using CAD software on the computer, ordering and assembling parts for prototyping on a workbench, testing the capture techniques in the lab, and reporting on capture performance and recommendations for future development. |
Kelly, Conlain | UNIVERSITY OF WISCONSIN-MADISON | JPLSIP | Marco Quadrelli | Modeling and Simulation of Planetary Space Platforms |
Activity: Multiple projects on physics based modeling, simulation and visualization of robotic systems, space vehicles and planetary environments are available at the DARTS Lab at JPL. |
Khoo, Norris | UNIVERSITY OF SOUTHERN CALIFORNIA | JPLYIP | Yumi Iwashita | Chevron Tight Rock Project |
Activity: The objective of this project is to develop advanced machine learning (ML) methods to control design and operating choices to optimize oil and gas recovery in tight rock unconventional reservoirs. |
Kikuchi, Yuiko | Keio University | JVSRP | Masahiro Ono | MAARS: Machine learning-based Analytics for Automated Rover Systems – Energy |
Activity: The objectives of this task are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability: a capability to maximize the driving distance of a solar-powered rover by analyzing the location-dependent energy consumption and generation from images and by choosing the path and schedule to maximize the energy balance. |
Kilic, Cagri | WEST VIRGINIA UNIVERSITY | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Kim, Leon | COLUMBIA UNIV SCHOOL ENGIN-UNDERGRA | JPLYIP | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth (everything except JVSRP) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
King, Jonathan | Carnegie Mellon University | NSTRF | Aaron Parness | NSTRF Gripping |
Activity: Technical objectives: 1) Improve proprioception: - Using motion capture, photogrammetry, or encoders for grasp pose estimation. - Vision based spring displacement and F/T Sensors for force estimation. 2) Collect grasp data: - Supplement new and prior grasping experiments with force and pose knowledge. |
Kinney, Mitchell | UNIVERSITY OF MINNESOTA-TWIN CITIES | JPLYIP-SUM | Curtis Padgett | Wide Baseline Stereo |
Activity: The candidate will be assigned a subtask--to produce reliable classification of surface vehicle type so that the autonomy system "knows" what type of navigation response to perform. The task involves learning different class shapes from the imagery and aggregating other contact properties (size, speed, etc.) to make an informed decision. |
Kramer, Andrew | UNIVERSITY OF COLORADO-BOULDER | NSTRF | Michael Wolf | Next Generation Perception for Robotic Exploration of Space and Earth |
Activity: This project is concerned with the problem of robot autonomy for exploration of challenging sensory environments. In this case, the focus components of robot autonomy involve robot localization, environment mapping, motion planning under uncertainty, and machine learning. The project entails developing, implementing, testing, and analyzing algorithms and approaches for robotic perception to meet these challenges. |
Krol, Kyle | Cornell University | JPLYIP | Steven Myint | Fuzzing Mars 2020 flight software |
Activity: This task will apply coverage-guided fuzz testing techniques to the Mars 2020 flight software (including mobility, sample caching, and opportunistic sequence execution planner). |
Kusch, Filippo | ETH Zurich | JVSRP | Marco Quadrelli | Simulation and Testing of Additive Manufacturing Processes for Space Applications |
Activity: This task involves the study of residual stresses of additively manufactured components, leveraging existing 3D manufacturing capabilities in combination with predictive computational tools, addressing stress-relief strategies, as well as physics-based numerical models. The ultimate goal is to accurately predict the lifecycle and performance of metallic parts based on Additive Manufacturing processes. |
Lamarre, Olivier | University of Toronto | JPLGF | Masahiro Ono | MAARS: Machine learning-based Analytics for Automated Rover Systems – Energy Optimal Autonav |
Activity: The objectives of these tasks are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability: a capability to maximize the driving distance of a solar-powered rover by analyzing the location-dependent energy consumption and generation from images and by choosing the path and schedule to maximize the energy balance. |
Lara Tovar, Bryan | Politecnico di Torino | JVSRP | Adrian Stoica | Robot-Oriented Integrated Circuits (RobotICs) |
Activity: Design a family of co-processors dedicated for efficient implementation of computations needed by robotics applications |
Leake, Carl | TEXAS A&M UNIVERSITY | NSTRF | Aaron Schutte | Modeling and Simulation of Planetary Space Platforms |
Activity: This project involves physics based modeling, simulation, and visualization of space vehicles using JPL's DARTS Lab software. |
Lee, Hanseob | KAIST | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Lew, Thomas | ETH Zurich | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Liu, Kevin | UNIVERSITY OF CALIFORNIA (UCLA) | JPLYIP | Arash Kalantari | Fabrication of a crash resilient flying/rolling vehicle |
Activity: The focus of this task will be on exploring different fabrication techniques for a crash resistance flying/rolling vehicle. |
Lizewski, Jacob | GEORGIA INSTITUTE OF TECHNOLOGY | JPLYIP | Travis Brown | Axel Rover Development |
Activity: This project focuses on development and testing of mechanical, electrical and computer systems on the Axel Rover. This includes electrical circuit design, integration, testing, and programming. |
Loi, Matteo | | APT | Adrian Wall | Business Internship |
Activity: |
Luebbers, Matthew | UNIVERSITY OF COLORADO-BOULDER | JPLSIP | Trevor Reed | RSVP - Rover Sequencing and Visualization Program |
Activity: This project is a first step toward moving some of our data visualization tools to an AR/VR platform. Our current tools make use of 3D stereo monitors, which are becoming less common both in availability and support. |
Lytle, Daniel | UNIVERSITY OF SOUTHERN CALIFORNIA | JPLYIP | Cristina Sorice | RIOT: Robotic Inspection Of Tanks |
Activity: Software and avionics support for aerial mobility system: small quadrotor and blimp design |
Maldonado-Contreras, Jairo | CALIF STATE UNIV-LONG BEACH | JPLYIP | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth (everything except JVSRP) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Mazouz, Rayan | Delft University of Technology | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
McCabe, Rebecca | MASSACHUSETTS INST OF TECHNOLOGY | JPLSIP | Eric Kulczycki | Mechanical Design and Testing for Mars Sample Transfer Test bed |
Activity: Student will assist in the design, development, and testing of technology for sample caches as part of the development of a Mars Sample Transfer Test-bed development. |
Miller, Eric | UNIVERSITY OF GEORGIA | | Steven Myint | Simulation for Mars 2020 rover operations |
Activity: This task will extend and test the capabilities of the SSIm framework. Areas this will cover are simulation of sensors and other hardware that interact with flight software, creation of automated tools that make use of SSim, and extensions to the web service that serves SSim to its clients. |
Morad, Steven | UNIVERSITY OF ARIZONA | JPLSIP | Aaron Parness | Grasp and Path Planning for Limbed Robots |
Activity: The student will work with the perception team to define, procure, mount and integrate a sensor package that may include stereo cameras, LIDAR, and other sensors so that the robot can build a local map of its position on the rock wall and identify good locations for the grippers to engage the surface. |
Morra, Daniele | Scuola Superiore Sant'Anna | JVSRP | Brett Kennedy | Tactile Gripper Development |
Activity: Develop tactile sensing, and incorporate it into an end effector to be used on Robosimian. Experimental study about tactile telepresence for remote operation in space and robotics applications at JPL. |
Mote, Mark | GEORGIA INSTITUTE OF TECHNOLOGY | JPLSIP | Amir Rahmani | Spacecraft Swarm Integrated Communications and Control |
Activity: The student will work closely with JPL engineers and depending on need will assist in designing motion-planning algorithms and software implementation, setting up simulation environment, running simulations, and hardware demonstrations. |
Mujtaba, Fawaz | UNIVERSITY OF NEVADA-LAS VEGAS | Space Grant | Roland Brockers | Visual Radar |
Activity: The goal of this project is to develop and implement a method to produce highly accurate online terrain-elevation maps to enable collision free flight in Earth and Mars like environments. The method will be based on 3D point cloud measurements acquired through a stereo camera system onboard a UAS or aircraft. |
Nadan, Paul | FRANKLIN W. OLIN COLLEGE OF ENGINEE | JPLSIP | Jacob Izraelevitz | SQUID (Streamlined Quick-Unfolding Investigation Drone) |
Activity: The intern position would aid in the prototyping, development, and testing of folding multirotors and their launchers. |
Newberry, Felix | UNIVERSITY OF COLORADO-BOULDER | JPLGF | Marco Quadrelli | Modeling and Simulation of Planetary Space Platforms |
Activity: Multiple projects on physics based modeling, simulation and visualization of robotic systems, space vehicles and planetary environments are available at the DARTS Lab at JPL. |
Newbold, Timothy | CALIF STATE POLYTECHNIC UNIV POMONA | JPLYIP | Scott Moreland | Enceldus In Situ Sampling Environmental Chamber Experimentation |
Activity: The task will involve the candidate performing mechanical design, assembly and laboratory testing of prototype sampling systems for application to Enceladus surfaces. This includes design of mechanisms using Solidworks CAD, managing the fabrication of machined parts, and assembly of hardware. Additionally, executing test programs to evaluate sampling systems will be performed. |
Nguyen, Jennifer | WEST VIRGINIA UNIVERSITY | JVSRP | Rohan Thakker | Next Generation Robots and AI for Exploring Space and Earth (JVSRP Rohan) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Nolan, Tui | University of Technology Sydney | JVSRP | Gareth Meirion-Griffith | Design optimization, simulation and field evaluation for mobile robot mobility systems operating on analogue Ocean World terrain |
Activity: To evaluate the efficacy of actively articulated suspension compared with the rocker-bogie mobility system the candidate will assist in running mobility field trials using both types mobility systems. |
Offermanns, Magnus | Alpen-Adria-Universität Klagenfurt | JVSRP | Roland Brockers | Map based localization for micro air vehicles autonomous navigation |
Activity: We will develop and implement a loop closure method for an autonomous micro air vehicle that can be used for both use cases: localization within a pre-existing map (e.g. images from Google Earth), and the detection of a revisit using a local map that is generated on the fly, based on images from on-board cameras. |
Ohi, Nicholas | WEST VIRGINIA UNIVERSITY | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Olsen, Nicholas | UNIVERSITY OF WISCONSIN-MADISON | JPLSIP | Marco Quadrelli | Modeling and Simulation of Planetary Space Platforms |
Activity: Multiple projects on physics based modeling, simulation and visualization of robotic systems, space vehicles and planetary environments are available at the DARTS Lab at JPL. |
Palieri, Matteo | Polytechnic University of Bari | NSTRF | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Papais, Sandro | McGill University | JVSRP | Benjamin Hockman | Systems Engineering study of an Inter-Planetary CubeSat |
Activity: The objective of this project is to design an autonomous inter-planetary CubeSat and perform basic systems engineering to size the various subsystems required for autonomous operations around small bodies (e.g. propulsion, ADCS, and imaging systems). |
Paparella, Fabio | Politecnico di Milano | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
Park, Hyoshin | North Carolina A&T State University | MSP | Masahiro Ono | Onboard Analytics for Mars Exploration Enabled by High Performance Spaceflight Computing |
Activity: The objectives of this task are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability |
Prasanna, Sahana | Scuola Superiore Sant'Anna | JVSRP | Brett Kennedy | Tactile Gripper Development |
Activity: Develop tactile sensing, and incorporate it into an end effector to be used on Robosimian. Experimental study about tactile telepresence for remote operation in space and robotics applications at JPL. |
Primstad, PÃ¥l | University of Oslo | JVSRP | Marco Quadrelli | Improving rover exploration capabilities by learning from humans |
Activity: The objective of the project is to Improving rover exploration capabilities by learning from humans. |
Quan, Justin | UNIVERSITY OF CALIFORNIA (UCLA) | JPLYIP | Spencer Backus | Perching Helicopters |
Activity: Design and develop gripper and landing gear of the perching gripper using rapid-prototyping tools and to develop and run testbeds to evaluate the gripper's performance in various conditions |
Radmanesh, Reza | UNIVERSITY OF CINCINNATI | JPLYIP | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth (everything except JVSRP) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Rafizadeh, Ramin | University of Maryland College Park | JPLSIP | Saptarshi Bandyopadhyay | Building Lunar Crater Radio Telescope (LCRT) using Autonomous Robots |
Activity: Technical challenges to be addressed are as follows: We aim to survey and select suitable craters on the far-side of the Moon for LCRT. The crater depth must be comparable to the crater radius to enable a feasible spherical-cap wire-mesh with the reflector’s focus within the crater. Moreover, we would like to avoid big boulder/out-crops and optimize SNR-to-weight ratio. |
Rankin, Ian | NEW MEXICO STATE UNIVERSITY | JPLSIP | Aaron Parness | Grasp and Path Planning for Limbed Robots |
Activity: The student will work with the perception team to define, procure, mount and integrate a sensor package that may include stereo cameras, LIDAR, and other sensors so that the robot can build a local map of its position on the rock wall and identify good locations for the grippers to engage the surface. |
Riccobono, Dario | Politecnico di Torino | JVSRP | Brett Kennedy | Enceladus Surface Sampling System Development |
Activity: The task involves learning about the tool/material interaction problem as it relates to Enceladus surface sampling, develop test apparatus to study sampling mechanics, conduct experimentation, perform analysis/simulation and make recommendations for design as an outcome of the work. |
Ridderbusch, Steffen | University of Oxford | JVSRP | Aaron Parness | Low-DOF, high capability, mobility system analysis |
Activity: The task involves a mathematical study into optimizing the design of multi-modal systems. The results will be used to pursue "next generation" mobility platforms in future studies. |
Ritter, Mikela | UNIVERSITY OF CALIFORNIA (UCLA) | NSTRF | Aaron Parness | NSTRF Flexible Electrostatics |
Activity: The goal of this study is to manufacture stretchable EA pads for use in a space environment. |
Rothenberger, Noah | ETH | JPLYIP | Steven Myint | Simulation for Mars 2020 rover operations |
Activity: This task will extend and test the capabilities of the SSIm framework. Areas this will cover are simulation of sensors and other hardware that interact with flight software, creation of automated tools that make use of SSim, and extensions to the web service that serves SSim to its clients. |
Sajjadi, Seyed | CALIF STATE UNIV-NORTHRIDGE | JPLYIP | Jean-Pierre de la Croix | On-board Autonomy for a Small, Foldable Robot |
Activity: The student will contribute to on-going development of autonomy functionality for PUFFER (e.g., motion control, state estimation, etc.). |
Sarabu, Hemanth | GEORGIA INSTITUTE OF TECHNOLOGY | JPLGF | Masahiro Ono | MAARS: Machine learning-based Analytics for Automated Rover Systems – Energy Optimal Autonav |
Activity: The objectives of these tasks are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability: a capability to maximize the driving distance of a solar-powered rover by analyzing the location-dependent energy consumption and generation from images and by choosing the path and schedule to maximize the energy balance. |
Scheiber, Martin | TEXAS A&M UNIVERSITY | JVSRP | Roland Brockers | VIO Initialization in unknown environments |
Activity: The goal of this project is to develop and implement a method to initialize an existing vision-based state estimation filter for a particular UAS deployment in a “throw and go” scenario where information before and after the throw is used for initialization. |
Shi, Tiffany | STANFORD UNIVERSITY | SURF | Yang Cheng | Mars 2020 LVS Field Test Support |
Activity: Analyze field test data in support of Mars 2020 LVS validation. This includes reporting on LVS performance and identifying any issues with the data collection and software. |
Slavick, Eitan | UNIVERSITY OF CALIFORNIA-BERKELEY | JPLYIP | Aaron Parness | Perching Helicopters |
Activity: -Design and develop gripper and landing gear of the perching gripper -Prototype gripper using rapid-prototyping tools for testing and functional demonstration. -Develop testbed and run tests to evaluate the gripper |
So, Charlson | CALIF STATE POLYTECHNIC UNIV POMONA | JPLYIP | Deegan Atha | Deep Learning and Data Management for Maritime Applications |
Activity: This project would entail three main components. The first is to develop a database of images and their ground truth data and tools to interact with this database. The second would be to experiment with different deep learning approaches on this database. The third would be to develop and augment existing evaluation tools to report the performance of these different algorithms. |
Stephens, Ravi | University of Sydney | NSTRF | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Sternklar-Davis, Benjamin | CORNELL UNIVERSITY | JPLSIP | Gene Merewether | Mars Science Helicopter Research and Technology -- SUMMER |
Activity: Based on the prior trade-space studies, sub-system forecasts, and science requirements, we will build a demonstration vehicle capable of addressing all the various mission requirements, while also mimicking the expected dynamic characteristics and overall capabilities of the canonical Mars Science Helicopter design. (i.e. applying velocity limits, acceleration limits, angular rate limits, slew rate limits, thrust limits, etc.) |
Suehr, Sean | NORTH CAROLINA A&T STATE UNIV | MSP | Masahiro Ono | Onboard Analytics for Mars Exploration Enabled by High Performance Spaceflight Computing |
Activity: The objectives of this task are to enhance the scientific and engineering value of future Mars rovers through the development, HPSC deployment, verification, and validation of the Energy Optima Autonav capability |
Takahashi, Ryohei | The University of Tokyo | JVSRP | Masahiro Ono | Research on Logistics of Multi-vehicle Mars Exploration using MTTT |
Activity: The objectives of this task are to perform basic researches on 1) enhancing the capabilities of MTTT by integrating ground-based and orbiter-based terrain classification and 2) system engineering study on the logistics of future unmanned and manned Mars exploration using a heterogeneous team of robots |
Terry, Edward | CARNEGIE MELLON UNIVERSITY | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Theodorou, Evangelos | GEORGIA INSTITUTE OF TECHNOLOGY | JSFRP-Faculty | Olivier Toupet | Machine Learning for Planetary Exploration |
Activity: This project is concerned with the problem of robot autonomy and machine learning. The faculty will contribute to research on motion planning under uncertainty and machine learning for space applications. |
Thomsen, Max | MASSACHUSETTS INST OF TECHNOLOGY | JPLSIP | Hari Nayar | Cable Winch Design |
Activity: Design a compact winch with enclosed motor for controlling and sensing cable length for a robotic application. |
Tighe, Katherine | DUKE UNIVERSITY | Space Grant | Eric Kulczycki | Mechanical Design and Testing for Mars Sample Transfer Test bed |
Activity: Student will assist in the design, development, and testing of technology for sample caches as part of the development of a Mars Sample Transfer Test-bed development. |
Tordesillas, Jesus | MASSACHUSETTS INST OF TECHNOLOGY | JPLGF | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth (everything except JVSRP) |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Touma, Thomas | RMIT | JVSRP | Aliakbar Aghamohammadi | Robotic Autonomy and Mobility Concept Design |
Activity: Different tasks are: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |
Trapp, Elliot | DEPAUL UNIVERSITY | JPLYIP | Jonathan Cameron | DARTS Lab Software Development CS (Spring 2019) |
Activity: The DARTS/Dshell simulation framework has many software development projects in simulation capabilities, visualization, user interfaces, data management, web services, and more. Students will work with the DARTS Lab team in the development, improvement, and adaptation of software tools for aerospace simulation applications. |
Ubellacker, Samuel | MASSACHUSETTS INST OF TECHNOLOGY | JPLSIP | Alexander Brinkman | Robotic Sampling for Icy Bodies |
Activity: As new sampling designs and approaches are developed, the robotic software control system must be updated to meet the needs of the project. |
Van Crey, Nikko | UNIVERSITY OF MICHIGAN - ANN ARBOR | JPLYIP | Donald Ruffatto | REACCH – Reactive Electro-Adhesive Capture Cloth |
Activity: The selected student will support the development and fabrication of prototype deployment mechanisms for the REACCH material to be used on a gripper assembly. |
Vasilev, Andrei | UNIVERSITY OF CALIFORNIA-IRVINE | JPLSIP | Alexander Brinkman | Robotics Modeling, Analyses, Manipulation and Mobility for In Space Assembly |
Activity: The candidate will develop simulations of the expected interactions between the robot and mating components. Also develop motion plans and interpret sensor data as needed to achieve the desired robotic behaviors with the end goal of a hardware demonstration. |
Vavra, Stephanie | UNIVERSITY OF NEBRASKA-LINCOLN | Space Grant | Ryan McCormick | Robotic Manipulator Development |
Activity: Develop new space robotic manipulators capabilities by infusing new technologies for future mission concepts. Aspects of the project will include design, prototyping and testing. |
Vertovec, Nikolaus | ETH Zurich | JPLYIP | Steven Myint | Simulation for Mars 2020 rover operations |
Activity: This task will extend and test the capabilities of the SSIm framework. Areas this will cover are simulation of sensors and other hardware that interact with flight software, creation of automated tools that make use of SSim, and extensions to the web service that serves SSim to its clients. |
Villalobos, Christopher | CALIF STATE POLYTECHNIC UNIV POMONA | JPLYIP | Spencer Backus | In-Space Assembly System Developmen |
Activity: A current testbed and interface prototypes incorporating a mobile manipulator and precision kinematic joints have been developed to evaluate strategies for in-space assembly and repair of satellites. Students are needed to support the testbed and continue development and testing of the robotic system, precision joints, and other systems integral to the modular serviceable satellite concept. |
Wagner, Caleb | WORCESTER POLYTECHNIC INSTITUTE | JPLSIP | Joshua Vander Hook | Technology Archive and Autonomy Catalog |
Activity: This project will take preliminary data sets, collected by hand over many hours and create a homogeneous front-end for a heterogeneous set of back-end data sources. |
Warren, Patrick | Taylor University | JPLSIP | Alexander Brinkman | Develop Control software for EtherCAT-connected Avionics |
Activity: This task is to develop a stand alone software system that is capable of running a minimum set of hardware and sensors needed by JPL research testbeds. The task should considering open source alternatives for our applications and end by demonstrating prototype solutions on various computers and operating systems. |
Wylie, Brittany | CALIFORNIA INSTITUTE OF TECHNOLOGY | JPLYIP | Brett Kennedy | Design and Testing of a Modular Satellite |
Activity: In order to understand how a modular satellite can be assembled and serviced, we need to design, build, and test the enabling technologies. The student will help generate models of existing system components and design and model new components of the system. In addition, the student will help assemble and test the components. |
Zanutto, Nicolas | Politecnico di Milano | JVSRP | Marco Quadrelli | Modeling, Simulation, and Control of Planetary Vehicles |
Activity: The projects range from participating in the development of models for new vehicles, conducting studies using these simulations, 3D graphics visualization, user interface development etc. |
Zhao, Steve | EAST LOS ANGELES COLLEGE | SIRI-Spring | Aliakbar Aghamohammadi | Next Generation Robots and AI for Exploring Space and Earth |
Activity: The intern will be: 1) Working on the theory and algorithms behind autonomy 2) Visualizing the ideas in an intuitive way and telling the story via creating high-quality simulations, graphics, presentations, and videos to convey the complex ideas to readers/audience. 3) Coding and implementing ideas in simulation and on real hardware. |