
Zubair Akhter PhD
Exploring Impossibilities

EDUCATION
My Studies
IIT Kanpur, India
January 2012 - Nov. 2017
Ph.D. program in RF and Microwave Engineering, Department of Electrical Engineering,
Indian Institute of Technology, Kanpur (IIT-Kanpur), India.
Thesis Title: Unified microwave imaging methodology for real-time monitoring and detection of objects
Advisor: Prof. Mohammad Jaleel Akhtar
IIT Roorkee, India
July 2009 - June 2011
Master of Technology (M. Tech.) in RF and Microwave Engineering, Department of Electronics and Computer Engineering, Indian Institute of Technology, Roorkee (IIT-Roorkee), UK, India
Thesis Title: Design, analysis, and implementation of concurrent dual-band (2.4/5.2 GHz) wireless transceiver.
Advisor: Prof. Nagendra Prasad Pathak
UPTU, Lucknow
July 2004 - June 2008
Bachelor of Technology (B.Tech.)
Electronics and Instrumentation Engineering, Uttar Pradesh Technical University, Lucknow, India
Project: Representative model for smart home ""An automated smart home environment".
Certifications


Background & Expertise
Technical Consultant, Saher Flow Solutions
March 2022 - Ongoing
Project: Multiphase Metering of gas, oil, and water.
Multiphase flow in oil production consists of three phases, i.e., oil, water, and gas. This classification of MPFM’s is based upon the manner in which the gas phase is treated. The separated-flow MPFM measures the gas flow after the separation of it from the liquid phases (i.e., oil and water); this simplifies measurement of the liquid phase. Additionally, in-line MPFMs treats the entire multiphase stream in a single conduit, which enables these and similar meters to be more compact in comparison to the separated-flow meters. In this assignment, a true 3-phase compact MPFM meter based on microwave sensing principles is being developed for oil and gas industry.
Technical Consultant, Ericsson
Sep 2021 - Ongoing
Project: Reconfigurable Intelligent Surfaces for 5G and Beyond Enhanced Communication
The electromagnetic (EM) wave propagation of mm-Wave 5G communication suffers from high atmospheric attenuation and thus, the communication coverage is reduced to a line-of-sight (LOS) and can be blocked by obstacles. To establish a secondary LOS when the direct path is not available, the reconfigurable intelligent surface (RIS) can be utilized which can redirect the reflected wave using its sub-wavelength periodic tunable EM resonators. These RIS’s can be massively attached to the building walls, windows, and form reconfigurable propagation paths in the environment. The project aims at solving the design and realization challenges for such as large reflection bandwidth, precise 180∘ phase shift control, and proper feed network design.
Research Fellow, Lockheed Martin, KAUST, Saudi Arabia
January 2020 - Aug. 2021
Project: Ultra-thin conformal antennas for UAV’s
Unmanned Aerial Vehicles (UAV), also known as autonomous drones, are being utilized for a variety of applications such as disaster management, search and rescue, surveillance, and remote monitoring. The antenna, being the most important part of that wireless link, must be designed such that it seamlessly integrates with the drone without affecting its flight. This means the antenna must be thin, lightweight, conformal, and provide wide coverage. To provide a plug-and-play solution, the antenna’s performance must not be deteriorated due to the UAV mounting. Further, to cater for high data rate applications, a large bandwidth is required, which is difficult to achieve with thin substrates. In this project, a thin, conformal antenna system is designed and developed for a long-range HD video transmission where the antenna can be attached to the drone’s body on demand like a sticker. Additionally, antennas radiation pattern diversity is useful to extend the communication range and a dual-band feature could be used to maintain the communication in presence of interference or jammers.
Research Engineer, ADNOC, UAE.
July 2018 - Sep. 2019
Project: Black powder detection in natural gas pipelines
Black powder (BP) is one of the most common contaminants in steel pipes used for the transportation of gas. It is an amalgam of iron sulfides, oxides, and carbonates. It is reported to originate from the milling of pipes, early detection of BP is incumbent to ensure the integrity of gas pipelines and to avoid catastrophe. In this project, a microwave sensing technology has been developed that utilizes a microwave probing mechanism to detect and monitoring of solid contaminants (BP) inside the natural gas pipelines.
PROFESSIONAL EXPERIENCE
PROFESSIONAL CERTIFICATIONS



