This page has only limited features, please log in for full access.

Unclaimed
Shahryar Garmsiri
University of Ontario Institute of Technology, Faculty of Engineering and Applied Science, 2000 Simcoe St. North, Oshawa, ON, L1H 7K4, Canada

Basic Info

Basic Info is private.

Honors and Awards

The user has no records in this section


Career Timeline

The user has no records in this section.


Short Biography

The user biography is not available.
Following
Followers
Co Authors
The list of users this user is following is empty.
Following: 0 users

Feed

Proceedings article
Published: 30 May 2018 in Progress in Canadian Mechanical Engineering
Reads 0
Downloads 0
ACS Style

Shahryar Garmsiri; Marc A. Rosen. Energy Benefits Of Integrating Transportation Energy With A Net Zero Energy Solar Building Using Captured Waste Hydrogen From Electrochemical Plants And Bio-Gas From Various Bio-Gasification Processes. Progress in Canadian Mechanical Engineering 2018, 1 .

AMA Style

Shahryar Garmsiri, Marc A. Rosen. Energy Benefits Of Integrating Transportation Energy With A Net Zero Energy Solar Building Using Captured Waste Hydrogen From Electrochemical Plants And Bio-Gas From Various Bio-Gasification Processes. Progress in Canadian Mechanical Engineering. 2018; ():1.

Chicago/Turabian Style

Shahryar Garmsiri; Marc A. Rosen. 2018. "Energy Benefits Of Integrating Transportation Energy With A Net Zero Energy Solar Building Using Captured Waste Hydrogen From Electrochemical Plants And Bio-Gas From Various Bio-Gasification Processes." Progress in Canadian Mechanical Engineering , no. : 1.

Journal article
Published: 31 March 2016 in International Journal of Hydrogen Energy
Reads 0
Downloads 0

Currently, hydrocarbon fuels are the main source of energy used in the transportation sector. However, these fuels are responsible for a relatively large proportion of the overall greenhouse gas emissions in many societies. In an effort to reduce greenhouse gas emissions, alternative energy carriers such as hydrogen can be used to allow renewable energy resources to replace hydrocarbon fuels in the transportation sector. Electrochemical and other process industries frequently vent or flare hydrogen into the atmosphere. These electrochemical industries use sodium chlorate or chlor-alkali as a reactor for water purification and paper bleaching processes in which hydrogen is produced as a by-product. The vented or flared hydrogen can be captured for use in the transportation sector. When considering a net zero energy community, the transportation energy sector is often viewed as independent from the building sector of the community. In this paper, the integration of transportation energy with a net zero energy community utilizing captured waste hydrogen from chlor-alkali plants is examined. Methods integrating the energy use in transportation using hydrogen to meet the community energy demands and to achieve net zero energy balance in a community, are discussed.

ACS Style

Shahryar Garmsiri; Seama Koohi-Fayegh; Marc A. Rosen; Gordon Rymal Smith. Integration of transportation energy processes with a net zero energy community using captured waste hydrogen from electrochemical plants. International Journal of Hydrogen Energy 2016, 41, 8337 -8346.

AMA Style

Shahryar Garmsiri, Seama Koohi-Fayegh, Marc A. Rosen, Gordon Rymal Smith. Integration of transportation energy processes with a net zero energy community using captured waste hydrogen from electrochemical plants. International Journal of Hydrogen Energy. 2016; 41 (19):8337-8346.

Chicago/Turabian Style

Shahryar Garmsiri; Seama Koohi-Fayegh; Marc A. Rosen; Gordon Rymal Smith. 2016. "Integration of transportation energy processes with a net zero energy community using captured waste hydrogen from electrochemical plants." International Journal of Hydrogen Energy 41, no. 19: 8337-8346.

Conference paper
Published: 13 November 2014 in Proceedings of The 4th World Sustainability Forum
Reads 0
Downloads 0

The consumption of hot water represents a significant portion of national energy consumption and contributes to concerns associated with global climate change. Utilizing heat recovered from the sewer, or the stored heat by utilizing heat pumps with a borehole geothermal energy storage system, are simple and effective ways of heating water for domestic purposes. Reclaiming heat from the waste warm water that is discharged to the sewer or stored heat in a borehole geothermal energy storage system can help reduce natural gas energy consumption as well as the associated energy costs and greenhouse gas emissions. In this paper, sewer waste heat recovery is compared with heat pumps using geothermal energy storage systems for a small community shared water heating system including commercial and institutional buildings. It is found that the sewer heat exchanger method is relatively economical as it has the smallest rate of return on investment for the selected community size. The findings also demonstrate a reduction occurs in natural gas consumption and fewer CO2 gas emissions are emitted to the atmosphere. The results are intended to allow energy technology suppliers to work with communities while accounting appropriately for economic issues and CO2 emissions associated with these energy technologies.

ACS Style

Shahryar Garmsiri; Seama Kouhi; Marc Rosen. Recovery of Sewer Waste Heat vs. Heat Pumps Using Borehole Geothermal Energy Storage for a Small Community Water Heating System: Comparison and Feasibility Analysis. Proceedings of The 4th World Sustainability Forum 2014, 1 .

AMA Style

Shahryar Garmsiri, Seama Kouhi, Marc Rosen. Recovery of Sewer Waste Heat vs. Heat Pumps Using Borehole Geothermal Energy Storage for a Small Community Water Heating System: Comparison and Feasibility Analysis. Proceedings of The 4th World Sustainability Forum. 2014; ():1.

Chicago/Turabian Style

Shahryar Garmsiri; Seama Kouhi; Marc Rosen. 2014. "Recovery of Sewer Waste Heat vs. Heat Pumps Using Borehole Geothermal Energy Storage for a Small Community Water Heating System: Comparison and Feasibility Analysis." Proceedings of The 4th World Sustainability Forum , no. : 1.

Journal article
Published: 30 April 2014 in Sustainability
Reads 0
Downloads 0

The potential benefits are examined of the “Power-to-Gas” (P2G) scheme to utilize excess wind power capacity by generating hydrogen (or potentially methane) for use in the natural gas distribution grid. A parametric analysis is used to determine the feasibility and size of systems producing hydrogen that would be injected into the natural gas grid. Specifically, wind farms located in southwestern Ontario, Canada are considered. Infrastructure requirements, wind farm size, pipeline capacity, geographical dispersion, hydrogen production rate, capital and operating costs are used as performance measures. The model takes into account the potential production rate of hydrogen and the rate that it can be injected into the local gas grid. “Straw man” systems are examined, centered on a wind farm size of 100 MW integrating a 16-MW capacity electrolysis system typically producing 4700 kg of hydrogen per day.

ACS Style

Shahryar Garmsiri; Marc A. Rosen; Gordon Rymal Smith. Integration of Wind Energy, Hydrogen and Natural Gas Pipeline Systems to Meet Community and Transportation Energy Needs: A Parametric Study. Sustainability 2014, 6, 2506 -2526.

AMA Style

Shahryar Garmsiri, Marc A. Rosen, Gordon Rymal Smith. Integration of Wind Energy, Hydrogen and Natural Gas Pipeline Systems to Meet Community and Transportation Energy Needs: A Parametric Study. Sustainability. 2014; 6 (5):2506-2526.

Chicago/Turabian Style

Shahryar Garmsiri; Marc A. Rosen; Gordon Rymal Smith. 2014. "Integration of Wind Energy, Hydrogen and Natural Gas Pipeline Systems to Meet Community and Transportation Energy Needs: A Parametric Study." Sustainability 6, no. 5: 2506-2526.

Conference paper
Published: 31 October 2013 in Proceedings of The 3rd World Sustainability Forum
Reads 0
Downloads 0

This paper examines the options and benefits of hydrogen utilization in various segments of the wind energy market. A parametric analysis is done to determine the feasibility and optimal size of wind farms and an electrolysis system producing hydrogen to be distributed via several means including the natural gas pipeline grid. This paper examines the wind farms available in Southern Ontario, Canada. Infrastructure requirements, wind farm size, pipeline capacity, geographical dispersion, cost and hydrogen production rate are used as performance measures throughout the study. The results indicate the feasibility and economic factors of the size of wind farms, electrolysis systems and production rates of hydrogen that can utilized for a community vehicle fleet fuelling, industrial demand, natural gas augmentation and stored energy applications. “Straw man” systems are examined, centered on a wind farm size of 100 MW integrating a 16 MW capacity electrolysis system producing 4,700 kg of hydrogen per day.

ACS Style

Shahryar Garmsiri; Marc Rosen; Rymal Smith. Integration of Wind Energy, Hydrogen and Natural Gas Pipeline Systems to Meet Community and Transportation Energy Needs: A Parametric Study. Proceedings of The 3rd World Sustainability Forum 2013, 1 .

AMA Style

Shahryar Garmsiri, Marc Rosen, Rymal Smith. Integration of Wind Energy, Hydrogen and Natural Gas Pipeline Systems to Meet Community and Transportation Energy Needs: A Parametric Study. Proceedings of The 3rd World Sustainability Forum. 2013; ():1.

Chicago/Turabian Style

Shahryar Garmsiri; Marc Rosen; Rymal Smith. 2013. "Integration of Wind Energy, Hydrogen and Natural Gas Pipeline Systems to Meet Community and Transportation Energy Needs: A Parametric Study." Proceedings of The 3rd World Sustainability Forum , no. : 1.

Journal article
Published: 27 December 2012 in International Journal of Hydrogen Energy
Reads 0
Downloads 0

This paper examines the options and benefits of hydrogen utilization in various segments of the transportation sector through a Six Sigma method. It presents a comparison of four modes of transportation – locomotive, marine, plane, and car – specifically for a case study in Ontario, Canada. Infrastructure requirements, public anxiety, public perception, cost and environmental impacts are used as performance measures through Six Sigma, rigidity index and regression analyses. The results from these analytical methods indicate how each transportation sector benefits in using hydrogen as its main source of fuel. The results show that locomotive transportation has the best advantage of using hydrogen in Ontario, Canada, as it can store more fuel on-board and the methods of refueling hydrogen can be made simpler and handled safely by locomotive operators. By converting the locomotives to operate on hydrogen fuel, this would reduce the pollution generated by diesel fuels significantly, which would assist in Ontario's goal of the Kyoto protocol in an attempt to reduce emissions.

ACS Style

Shahryar Garmsiri; Ibrahim Dincer; G.F. Naterer. Comparisons of automotive, locomotive, aircraft and marine conversion to hydrogen propulsion using six-sigma methodologies. International Journal of Hydrogen Energy 2012, 38, 2020 -2028.

AMA Style

Shahryar Garmsiri, Ibrahim Dincer, G.F. Naterer. Comparisons of automotive, locomotive, aircraft and marine conversion to hydrogen propulsion using six-sigma methodologies. International Journal of Hydrogen Energy. 2012; 38 (5):2020-2028.

Chicago/Turabian Style

Shahryar Garmsiri; Ibrahim Dincer; G.F. Naterer. 2012. "Comparisons of automotive, locomotive, aircraft and marine conversion to hydrogen propulsion using six-sigma methodologies." International Journal of Hydrogen Energy 38, no. 5: 2020-2028.