Closed loop reservoir management for carbon storage

The project’s aims are to conduct research on geological carbon storage from the perspective of dynamic analysis and process systems engineering, looking in particular at the dynamics between the wellhead and the CO2 storage reservoir. The main objective is to achieve closed loop operation and management of the reservoir with respect to CO2 sequestration and storage, along with enhanced oil recovery in cases where the reservoir is not fully depleted. The main thrust areas of the project are described below.

Uncertainty propagation and risk assessment for geological carbon storage

The project’s aims are to conduct research on geological carbon storage from the perspective of dynamic analysis and process systems engineering, looking in particular at the dynamics between the wellhead and the CO2 storage reservoir. The main objective is to achieve closed loop operation and management of the reservoir with respect to CO2 sequestration and storage, along with enhanced oil recovery in cases where the reservoir is not fully depleted.

Development of proxy reservoir models for geological carbon storage

The project’s aims are to conduct research on geological carbon storage from the perspective of dynamic analysis and process systems engineering, looking in particular at the dynamics between the wellhead and the CO2 storage reservoir. The main objective is to achieve closed loop operation and management of the reservoir with respect to CO2 sequestration and storage, along with enhanced oil recovery in cases where the reservoir is not fully depleted.

Optimal design of experiments in geological carbon storage

The project’s aims are to conduct research on geological carbon storage from the perspective of dynamic analysis and process systems engineering, looking in particular at the dynamics between the wellhead and the CO2 storage reservoir. The main objective is to achieve closed loop operation and management of the reservoir with respect to CO2 sequestration and storage, along with enhanced oil recovery in cases where the reservoir is not fully depleted. The main thrust areas of the project are described below.

Sustainable Development through the Effective Production and Use of Bio-Fuels and Integrated Bio-Refineries

The project concentrates on developing a holistic approach to integrate bio-refinery with multiple feedstocks. The proposal is directed towards the use of all types of renewable raw materials except food. The project examines the possibility of retrofitting an existing petroleum refinery and petro-chemical complex into integrated bio-refinery to emphasize the utilization of existing infrastructure for bio-fuels; bio-products and direct bio-energy production.

Coprocessing of Biomass and Heavy Oils (Bio-Economy and Clean Technologies)

Pyrolysis uses high temperatures, in the absence of oxygen, to crack long and complex molecures into smaller molecules.  It has been successfully and separately applied to both (a) heavy oils, to produce lighter liquid fractions and solid coke byproduct in conventional oil refineries, and to (b) biomass, to convert solid residues into liquid bio-oils.  Pyrolytic cracking generates highly reactive radical fragments, which then recombine into different chemical species.  The proposed research consists in the development of a new technology for the simultaneous co-processing of biomass and hea

Yield Envelopes for Oblique Pipeline/Soil Interaction Events

An understanding of the soil load and restraint on pipelines due to relative pipeline/soil movement is required to assess the pipeline mechanical response that may affect pipeline serviceability or integrity. Current engineering practice for pipeline/soil interaction is based on idealized structural-based numerical models that evaluate pipeline mechanical response using beam elements and soil behavior using discrete spring system. The soil spring are characterized by independent load- displacement relationships for only principal directions (i.e.

Oil Springs Social History Project

In preparation for the 2011 UNESCO World Heritage Site Designation bid, Lambton County’s Oil Museum of Canada is undertaking a new project. The Oil Springs Social History Project will explain what the community of Oil Springs looked like when its population exploded as a result of the discovery of ‘Black Gold’. Described as a site of great national and international significance, the oil fields continue to flow today using much of the technology which made this sleepy town a bustling community in the 1850s and 60s.

The Security Implementation of the Sahara Pipeline Inspection System

The intern will work closely with the PPIC Sahara system design engineers to develop a new security control system to protect both the software and hardware of the Sahara system. The tasks will 1) propose a true random number generator based on the dsp controller 2) implement a cryptographic algorithm based on the random number generated 3) develop the hardware and software for the proposed security system. This security system will provide an effective protection to the Sahara equipment from unauthorized use and protect the economic interests of the company.

Global and Local Stress Analysis of Coke Drum by New Temperature-dependent Elastoplastic Constitutive Material Model

Coke drums are major petroleum refinery and oil sands upgrading facilities associated with the processing of oil sands bitumen. The service lives of current coke drums are limited and frequent repairing is required due to severe cyclic thermal-mechanical load experienced. The objective of this project is to find root causes causing the damage/failure through more accurate global and local elastoplastic analyses on the coke drums by using new developed material constitutive model.

Pages