Phase: |
Theme |
Theme: | Heavy Oil - In-Situ (T07) |
Status: | Ended |
Start Date: | 2018-04-01 |
End Date: | 2020-03-31 |
Project Overview
The world is seeing a technological revolution in wireless communication and sensing. With the ever-increasing demand for wireless devices and additional smart functionalities in existing technologies, a significant amount of research has been directed towards wireless technology and sensing devices. As a result, microwave devices and systems, which constitute the backbone of all communication systems, have significantly advanced in recent years. Sensors and sensor networks are used to report very small environmental changes and provide feedback for informed decision-making. They are becoming an inseparable part of daily life and are widely used in many industry sectors. Despite this progress, the oil industry lacks wireless sensing platforms due to the harsh operating environment (high temperature, high pressure, corrosive fluids) and difficulty in transferring power and data down the wellbore. The potential benefits of deploying existing knowledge on wireless ICT (information and communication technology) for the Canadian energy sector are significant.
Here, we propose to provide Canada’s energy industry with a breakthrough in technology for intelligent wellbore completion and operation, with in situ and real-time monitoring of SAGD production wells. This can be achieved through a wireless laboratory in SAGD wells.
Outputs
Title |
Category |
Date |
Authors |
C.R. James Award for Best Master's Thesis in Winter 2019 | Award | 2019-04-01 | Susanna Vital de Campos de Freitas |
First Place Award - Best Research Elevator Pitch Presentation | Award | 2019-06-27 | Fabiano Domingos |
Capacitive Resonant System to Charge Devices with Metallic EmbodimentAbstract—This work proposes a novel wireless power transfer
(WPT) the system in the near-field region using open-ended helical
resonators (OEHRs), taking advantage of their high-quality
factor characteristics. Instead of using the conventional approach
of magnetic coupling between resonators, capacitive coupling
is introduced between transmitter and receiver devices. This
new configuration is designed to operate at the frequency of
6.78 MHz and is evaluated by measurement, simulation, and
equivalent circuit analysis. Furthermore, the proposed technology
allows significant misalignment between transmitter and receiver
structures. University of Alberta | Publication | 2019-01-15 | Susanna Vital de Campos de Freitas, Fabiano Domingos, Mirzavand, R., Pedram Mousavi |
Capacitively Coupled Resonators for Misalignment-Tolerant Wireless Charging through Metallic CasesAbstract—This work proposes a novel wireless power transfer
(WPT) system in the near-field region using open-ended helical
resonators (OEHRs), taking advantage of their high quality
factor characteristics. Instead of using the conventional approach
of magnetic coupling between resonators, capacitive coupling
is introduced between transmitter and receiver devices. This
new configuration is designed to operate at the frequency of
6.78 MHz and is evaluated by measurement, simulation and
equivalent circuit analysis. Furthermore, the proposed technology
allows significant misalignment between transmitter and receiver
structures. University of Alberta | Publication | 2019-01-15 | Fabiano Domingos, Susanna Vital de Campos de Freitas, Mirzavand, R., Pedram Mousavi |
Wireless Data and Power Transmission To SAGD LinersPoster Presentation University of Alberta | Activity | 2018-10-03 | Fabiano Domingos, Susanna Vital de Campos de Freitas, Pedram Mousavi, Mirzavand, R. |
Wireless Power Transmission over SAGD Lines3 Minute Elevator Pitch | Activity | 2019-05-07 | Fabiano Domingos |
Electrical Engineering: Magnetic Field and Wireless Power Transfer (Interactive Demonstration) | Activity | 2019-10-19 | Susanna Vital de Campos de Freitas, Fabiano Domingos |
How does Wireless Power work? (Interactive Demonstration) | Activity | 2019-05-11 | Susanna Vital de Campos de Freitas |
Power and Data Transmission Technique for Oil Industry Sensors3 Minute Elevator Pitch | Activity | 2019-06-27 | Fabiano Domingos |
USchool Tenth Anniversary PresentationShowed to hundreds of U School students how copper coils could wirelessly transmit power to lightbulbs – if pointed in the correct direction. | Activity | 2019-06-04 | Susanna Vital de Campos de Freitas, Fabiano Domingos |
Wireless Power Transfer Interactive Demonstration | Activity | 2019-05-09 | Susanna Vital de Campos de Freitas |