Wearable Self Sufficient MFC Communication System Powered by Urine. - Majid Taghavi; Andrew Stinchcombe; John Greenman; Virgilio Mattoli; Lucia Beccai; Barbara Mazzolai; Chris Melhuish; Ioannis Ieropoulos (TAROS, 2014)

Stochastic capacity expansion with multiple sources of capacity. - Majid Taghavi; Kai Huang 003 (Oper. Res. Lett., 2014)

High strength bubble artificial muscles for walking assistance. - Richard Suphapol Diteesawat; Tim Helps; Majid Taghavi; Jonathan Rossiter (RoboSoft, 2018)

Electroactive textile actuators for wearable and soft robots. - Jianglong Guo; Chaoqun Xiang; Tim Helps; Majid Taghavi; Jonathan Rossiter (RoboSoft, 2018)

Easy Undressing with Soft Robotics. - Tim Helps; Majid Taghavi; Sarah Manns; Ailie J. Turton; Jonathan Rossiter (TAROS, 2018)

3D-Printed Ready-To-Use Variable-Stiffness Structures. - Majid Taghavi; Tim Helps; Boxiong Huang; Jonathan Rossiter (IEEE Robotics Autom. Lett., 2018)

Towards Adaptive Prosthetic Sockets using 3D-printed Variable-stiffness Shape-memory Structures. - Afonso Pourfarzaneh; Majid Taghavi; Tim Helps; Jonathan Rossiter (RoboSoft, 2019)

Characterisation of Self-locking High-contraction Electro-ribbon Actuators*. - Majid Taghavi; Tim Helps; Jonathan Rossiter (ICRA, 2020)

A Lagrangian relaxation approach for stochastic network capacity expansion with budget constraints. - Majid Taghavi; Kai Huang 003 (Ann. Oper. Res., 2020)

Closed-Loop Control of Electro-Ribbon Actuators. - Richard Suphapol Diteesawat; Aaron Fishman; Tim Helps; Majid Taghavi; Jonathan Rossiter (Frontiers Robotics AI, 2020)

Self-Sensing Electro-Ribbon Actuators. - Simon Bluett; Tim Helps; Majid Taghavi; Jonathan Rossiter (IEEE Robotics Autom. Lett., 2020)

Modular simulation framework for Electro-ribbon Actuators. - Bruno Castro; Richard Suphapol Diteesawat; Majid Taghavi; Jonathan Rossiter (RoboSoft, 2021)

Polynomial-time algorithms for single resource stochastic capacity expansion models with lost sales. - Majid Taghavi; Kai Huang 003; Amirmohsen Golmohammadi (INFOR Inf. Syst. Oper. Res., 2021)

Electro-pneumatic pumps for soft robotics. - Richard Suphapol Diteesawat; Tim Helps; Majid Taghavi; Jonathan Rossiter (Sci. Robotics, 2021)

Electro-Ribbon Muscles for Biomimetic Wing Flapping. - Jian Huai Chong; Christian Romero; Majid Taghavi; Jonathan Rossiter (RoboSoft, 2022)

Liquid-amplified zipping actuators for micro-air vehicles with transmission-free flapping. - Tim Helps; Christian Romero; Majid Taghavi; Andrew T. Conn; Jonathan Rossiter (Sci. Robotics, 2022)

Electrically Zipping Bending Actuators for Prosthetic Fingers. - Tristan Fraai; Jian Wen; Majid Taghavi (IEEE Robotics Autom. Lett., 2023)

Material and Structural Improvement in Electro-Ribbon Actuators Towards Biomimetic Stacked Architecture. - Troy Baker; Majid Taghavi (RoboSoft, 2024)

Dielectrophoretic Elastomer Actuators for Soft Pneumatic Pumps. - Ciqun Xu; Charl Faul; Majid Taghavi; Jonathan Rossiter (RoboSoft, 2024)

Origami-Inspired Modular Electro-Ribbon Actuator for Multi-Degrees of Freedom Motion. - Ningzhe Hou; Jian Wen; Yuhan Pan; Majid Taghavi (Adv. Intell. Syst., 2024)

Multi-objective planning of electric vehicles charging stations by integrating drivers' preferences and fairness considerations: A case study in Halifax, Canada. - Hani Pourvaziri; Majid Taghavi; Hassan Sarhadi; Hamid Afshari; Nader Azad (Comput. Ind. Eng., 2025)

Explainable machine learning to identify risk factors for unplanned hospital readmissions in Nova Scotian hospitals. - Mariano Maisonnave; Enayat Rajabi; Majid Taghavi; Peter T. Vanberkel (Comput. Biol. Medicine, 2025)

Improving a supplier's social responsibility: the effect of competition and incomplete visibility. - Amirmohsen Golmohammadi; Majid Taghavi; Samira Farivar; Ali Vaezi (Int. J. Prod. Res., 2025)

Optimizing vaccine logistics: a taxonomy and narrative review. - Jacob Locke; Majid Taghavi; Bahareh Mansouri; Ahmed Saif (INFOR Inf. Syst. Oper. Res., 2025)

Electroactive Twisted Ribbon for Torsional Zipping Actuator. - Wenjie Sun; Jiayu Liu; Yuejun Xu; Jiameng Li; Majid Taghavi (IEEE Robotics Autom. Lett., 2025)