Force adaptation in human walking with symmetrically applied downward forces on the pelvis. - Vineet Vashista; Neelima Agrawal; Shazlin Shaharudin; Darcy S. Reisman; Sunil K. Agrawal (EMBC, 2012)

Asymmetric adaptation in human walking using the Tethered Pelvic Assist Device (TPAD). - Vineet Vashista; Darcy S. Reisman; Sunil K. Agrawal (ICORR, 2013)

Second Spine: A device to relieve stresses on the upper body during loaded walking. - Joon-Hyuk Park; Damiano Zanotto; Vineet Vashista; Xin Jin 018; Paul Stegall; Sunil K. Agrawal (BioRob, 2014)

A new Constant Pushing Force Device for human walking analysis. - Basilio Lenzo; Damiano Zanotto; Vineet Vashista; Antonio Frisoli; Sunil Kumar Agrawal (ICRA, 2014)

Active Tethered Pelvic Assist Device (A-TPAD) to study force adaptation in human walking. - Vineet Vashista; Xin Jin 018; Sunil Kumar Agrawal (ICRA, 2014)

A Novel Approach to Apply Gait Synchronized External Forces on the Pelvis Using A-TPAD to Reduce Walking Effort. - Vineet Vashista; Moiz I. Khan; Sunil Kumar Agrawal (IEEE Robotics Autom. Lett., 2016)

Development of an Adaptive Gait Characterizer. - Aniket Mazumder; Vineet Vashista (AIR, 2017)

Workspace Analysis of a Cable Driven Leg Exoskeleton. - N. S. S. Sanjeevi; Vineet Vashista (AIR, 2017)

A cable driven parallel robot for coconut farm. - Thejas Narayanan; Rajendran S. Vishnu; Rao R. Bhavani; Vineet Vashista (ICACCI, 2017)

On the stiffness analysis of a cable driven leg exoskeleton. - N. S. S. Sanjeevi; Vineet Vashista (ICORR, 2017)

Robot-driven downward pelvic pull to improve crouch gait in children with cerebral palsy. - Dario Martelli; Vineet Vashista; I. Martinez-Hernandez; Heakyung Kim; Sunil K. Agrawal (Sci. Robotics, 2017)

Lower Limb Musculoskeletal Stiffness Analysis During Swing phase as a Cable-Driven Serial Chain System. - Nevilkumar Panehal; N. S. S. Sanjeevi; Vineet Vashista (BioRob, 2018)

Minimum Swing Controller for Quadrotor Suspended Load System. - Saurabh Lanje; Vineet Vashista (AIR, 2019)

Development and Applicability of a Cable-driven Wearable Adaptive Rehabilitation Suit (WeARS). - S. Srikesh Iyer; Joel V. Joseph; N. S. S. Sanjeevi; Yogesh Singh; Vineet Vashista (RO-MAN, 2019)

Collaborative Transportation of Cable-Suspended Payload using Two Quadcopters with Human in the loop. - Pratik Prajapati; Sagar Parekh; Vineet Vashista (RO-MAN, 2019)

Intention Detection and Gait Recognition (IDGR) System for Gait Assessment: A Pilot Study. - Yogesh Singh; Manan Kher; Vineet Vashista (RO-MAN, 2019)

Lower-Limb Strategy Assessment during a Virtual Reality based Dual-Motor-Task. - Yogesh Singh; Vinayvivian Rodrigues; Antonio Prado; Sunil K. Agrawal; Vineet Vashista (BioRob, 2020)

On the Human Control of a Multiple Quadcopters with a Cable-suspended Payload System. - Pratik Prajapati; Sagar Parekh; Vineet Vashista (ICRA, 2020)

Evolving Toward Subject-Specific Gait Rehabilitation Through Single-Joint Resistive Force Interventions. - S. Srikesh Iyer; Joel V. Joseph; Vineet Vashista (Frontiers Neurorobotics, 2020)

Lower-limb Muscle Force analysis for a Knee Joint Intervention Strategy. - Vineet Vashista; Sanjeevi Nakka (AIR, 2021)

Single-Joint Angle Computation using Inertial Sensors with Feedback on Smartphone. - Vineet Vashista; Yogesh Singh (AIR, 2021)

Stiffness modulation of a cable-driven leg exoskeleton for effective human-robot interaction. - N. S. S. Sanjeevi; Vineet Vashista (Robotica, 2021)

Passive Exosuit Emulator for Material Handling Applications. - Siddharth Bhardwaj; Akshayraj B. Shinde; Randheer Singh; Vineet Vashista (IEEE Robotics Autom. Lett., 2022)

Effect of External Damping on Ankle Motion During the Swing Phase of Walking. - Chinmay Jategaonkar; Yogesh Singh; Vineet Vashista (IEEE Robotics Autom. Lett., 2022)

Throwing Strategy in a Dual-Motor-Task of Aiming at the Bullseye While Walking in Virtual Reality. - Yogesh Singh; Sunil K. Agrawal; Vineet Vashista (IEEE Robotics Autom. Lett., 2022)

On-board cable attitude measurement and controller for outdoor aerial transportation. - Pratik Prajapati; Sagar Parekh; Vineet Vashista (Robotica, 2022)

Markerless Gait Characterization Using Single Video Camera Setup. - Arushi Khokhar; Yogesh Singh; Vineet Vashista (AIR, 2023)

A Study on Reinforcement Learning based Control of Quadcopter with a Cable-suspended Payload. - Pratik Prajapati; Atul Patidar; Vineet Vashista (AIR, 2023)

A Novel Virtual Reality Paradigm to Assess Gait Response to Visuospatial Perturbation during Walking. - Smriti Saini; Yogesh Singh; Vineet Vashista (AIR, 2023)

Torque amplification using a cable driven multi-pulley mechanism for ankle foot orthosis. - Akshayraj B. Shinde; Neel Parimal Gandhi; Siddharth Bhardwaj; Vineet Vashista (AIR, 2023)

Upper Limb Musculoskeletal Stiffness Analysis during Planar Motions as a Cable-Driven Serial Chain Manipulator. - Randheer Singh; Nakka Surya Satya Sanjeevi; Vineet Vashista (AIR, 2023)

Aerial Physical Human Robot Interaction for Payload Transportation. - Pratik Prajapati; Vineet Vashista (IEEE Robotics Autom. Lett., 2023)

External Dynamics Dependent Human Gait Adaptation Using a Cable-Driven Exoskeleton. - Sanjeevi Nakka; Vineet Vashista (IEEE Robotics Autom. Lett., 2023)

Compact and Lightweight Cable Attitude Measurement Device for Aerial Transportation Applications. - Pratik Prajapati; Vineet Vashista (TENCON, 2024)

Biomechanical Analysis of Foot Landing: A Machine Learning Approach Using Wearable Sensor System. - Dhyey Shah; Ronak Vyas; Vineet Vashista (TENCON, 2024)

Hybrid Actuation Paradigm in Back-Assist Exoskeleton for Symmetric Loading Conditions - A Feasibility Study. - Arpeet Dhal; Teja Krishna Mamidi; Vineet Vashista (ICORR, 2025)

Modeling and Estimation of Stiffness Imposed by Cable-Based Exosuits. - Randheer Singh; Vineet Vashista (ICORR, 2025)

Biomechanical Analysis of Repetitive Lifting with Passive Exosuit Assistance: Preliminary Results. - Ronak Vyas; Francesco Travascio; Vineet Vashista (ICORR, 2025)

Human-State-Aware Non-Linear Control Framework for Physical Collaborative Aerial Transportation. - Pratik Prajapati; Ravi N. Banavar; Vineet Vashista (IEEE Control. Syst. Lett., 2025)