Pyrolysis of Rice Husks and Analysis of Biochar and Bio-oil

This project focuses on the pyrolysis of rice husks and the analysis of the resulting products, including biochar and bio-oil. Pyrolysis is the decomposition of organic matter under high heat in the absence of oxygen. This project examines the pyrolysis of rice husks. Rice husks account for 20% of the entire weight of the grain. Currently, many rice producers perform uncontrolled burning to dispose of the rice husks due to the high cost of transportation for proper disposal.

Dynamic Control of Robotic Arm

In the design of robotic mechanisms, dynamic balancing i.e. force and moment balancing is an important issue. The robotic mechanism’s accuracy and efficiency are affected because of the unbalance. Moreover, the forces and moments cause fatigue, noise and disturbance in its structural base. Previous research done by Prof. Chris Zhang include a force balancing method that is termed as adjusting kinematic parameters (AKP) for robotic mechanisms or real-time controllable (RTC) mechanisms. This research includes dynamic balancing method for planar mechanisms only i.e. two dimensional.

Extrusion of Metal Matrix Composite material: orientation of reinforcements and transfer of properties

The aim of this project is to develop and characterize metal matrix composite materials for applications in the field of power electronics and automotive. The material under study are constituted by a copper or aluminum matrix, reinforced by carbon (fibers or platelets) and it is known that the composite properties depend on the orientation of the reinforcements. The objective of this research is to study and to evaluate the effect of a deformation (e.g extrusion) of the material on its thermal, electrical and mechanical properties.

Hardware in the loop simulation for model scale wave energy converters

Ocean wave energy converters (WECs) are devices that utilize ocean energy to produce electricity or fresh water. A key stage in developing these devices is scale model testing in wave tanks, as it allows the power generation capabilities of a design to be evaluated at a much lower cost and with no environmental risk compared to full scale testing in the ocean. One of the challenges with designing scale models of WECs is the power take-off (PTO) system which can be infeasible to implement at small scales.

Evaluating Performance of Polymer Membranes for Fuel Cell Humidifier Applications

Hydrogen fuel cells require humidification in order to operate effectively, yet, at the same time produce a constant stream of moisture through their exhaust. Membrane fuel cell humidifiers provide a method of ‘recycling’ this moisture, thereby saving energy. They work similarly to heat exchangers, but take advantage of special polymer membranes in order to exchange moisture. Fuel cell environments can be very taxing on membranes, reaching temperatures of 95C, so selecting the right membrane material is of utmost importance.

Optimization of the stem/gate connection of industrial valves– experimentation and modeling

Velan Inc. in Montreal, Quebec is one of the world leaders in design and manufacturing of industrial steel valves for applications in chemical, oil and gas, military, mining, and nuclear industries. Velan wishes to optimize its valve design in terms of maximum strength and minimum weight according to latest standard requirements. To achieve that, its existing analytical and finite element method (FEM) models should be improved by taking into account large deformation and contact analysis to accurately predict the failure point of stem and gate.

Thermo-economic assessment and experimental investigation of renewable energy based NH3 production options for clean energy communities

Production and utilization of ammonia in the transportation and power generation sector brings numerous advantages by introducing environmentally friendly, sustainable and efficient systems. Ammonia (NH3) is the only carbon-free chemical energy carrier together with hydrogen suitable for use as a transportation fuel. In this project, renewable energy based NH3 production methods are investigated for power generation, transportation and energy utilities. Specifically, concentrated solar energy based electrochemical ammonia synthesis is experimentally investigated.

Investigation of electrochemical post-processing procedure for Ti-6Al-4V lattice structure manufactured by Direct Metal Laser Sintering (DMLS)

Additive manufacturing that is commonly called 3D printing has been identified as the 3rd industrial revolution because the outstanding flexibility that it brings to designer in the industry. Because the part is printed layer by layer, almost any complex geometry that can?t be made by conventional methods can be fabricated in a wide range of material like polymer, metal and ceramics. On the other hand, a major drawback of this technology limits its application in real engineering scenario in the industry and it?s the surface roughness of the printed part.

Development of an advanced modeling platform for assessing chemical and mechanicalmembrane durability in polymer electrolyte membrane fuel cells - Year Two

Hydrogen powered polymer electrolyte membrane fuel cells (PEMFCs) are a clean energy technology that generates electricity without harmful emissions at the point of use. To accelerate commercialization, current R&D efforts mainly target reduced cost and increased lifetime. The proposed research project addresses both aspects by developing a unified chemical and mechanical modeling platform for evaluating membrane durability in PEMFCs. The core validation is based on extensive test and field data provided by our industry partner, Ballard Power Systems.

Radio Acoustical Virtual Environment: from Lab to Field

Verbal communication in noise while wearing hearing protection devices (HPDs) is often difficult. Recently, a “Radio Acoustical Environment” (RAVE) was developed within the EERS-ETS Industrial Research Chair in In-Ear Technologies (CRITIAS) to enhance communication for people wearing HPDs in noise. With RAVE, speech is captured from inside the ear, denoised, and enhanced to be sent only to listeners within a given spatial range. This range is determined based on the changes in the talker’s vocal effort and background noise level. Currently, RAVE is at its prototype stage.