Ildar Dale F Akhmadullin

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Ildar Dale F Akhmadullin

Ildar Dale F Akhmadullin

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  • Reviews9
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Biography

Baton Rouge Community College - Engineering


Experience

  • Louisiana State University

    Research Assistant

    Ildar Dale F worked at Louisiana State University as a Research Assistant

  • Louisiana State University

    Evaluated student's research posters.
    Evaluated the oral presentations.

  • Baton Rouge Community College

    Assistant professor, Pre-engineering program manager

    Ildar Dale F worked at Baton Rouge Community College as a Assistant professor, Pre-engineering program manager

  • The University of Texas at San Antonio

    Teaching and Lab assistant

    Teaching recitations, help sessions, lab work for Mechanical Engineering undergraduate students.
    Classes: Fluid Dynamics, Statics and Dynamics.
    Professors: Dr.Morrow, Dr. Nedungadi, Prof.Johnson.

  • AVTOMALER

    Senior Mechanical Engineer

    Solving engineering problems associated with exploitation, repair, and installation of
    HVAC systems (heating, ventilation, vibration of paint booths),
    auto body shop and car repair equipment (hydraulic lifts, tire rotation and balancing equipment);
    Educating and mentoring service workers, managing their work;
    Investigate mechanical failures and solve problems;
    Defining ways of improvement of customer's service
    (time management, planning and scheduling of service work)

  • Eden GeoPower

    Chief Technology Officer

    Ildar Dale F worked at Eden GeoPower as a Chief Technology Officer

Education

  • University of Texas at San Antonio

    Master's Degree

    Mechanical Engineering
    Designed heat transfer experiment based on computer CPU water cooling heat sinks applications. Analyzed collected data in terms of uncertainty propagation using regression analysis. Presented the obtained results in ASME conference and wrote a publication.

  • Louisiana State University

    Doctor of Philosophy (Ph.D.)

    Petroleum Engineering
    Work on geothermal project sponsored by Department of Energy of the United States.

  • Louisiana State University

    Research Assistant



  • Louisiana State University


    Evaluated student's research posters. Evaluated the oral presentations.

  • Kama State Polytechnical Institute

    Bachelor's Degree

    Mechanical Engineering
    Worked as a student team leader on a project sponsored by car manufacturing company. The project was dedicated to design and analysis of a new V6 internal combustion engine for a middle range car. Proposed features included original timing belt design, engine compartment layout. The calculated emission levels satisfied to Euro 2 requirements with sufficient power and torque values.

Publications

  • Utilization of Co-Produced Water from Oil Production: Energy Generation Case

    OnePetro SPE-184459-MS

    Co-produced water resources in oil & gas fields raise technological interest under the condition of increased energy demand and carbon dioxide emission reduction. Primarily the development of medium and low-temperature co-produced water resources are discussed in terms of energy production and further utilization in the downstream facilities of petroleum industry. Addition of the Organic Rankine cycle (ORC) as a compact binary power plant to the existing scheme allows harvesting a great portion of energy that is usually lost as waste heat. This additional system does not interrupt the main facility streams and operational parameters. The simple case with R134a refrigerant was numerically explored for the wide range of coproduced water flow rates and temperatures. The results show that with the increase of water production the power generation is increased up to 1 MW at 50,000 BWPD and 275℉ water temperature. The economic evaluation shows that the Levelized cost of electricity falls lower than 1.5 cents/kW. With using the proposed scheme on the production facility, the carbon dioxide (CO2) emissions can drop up to 500lb. per operational hour comparing with traditional gas turbine station.

  • Utilization of Co-Produced Water from Oil Production: Energy Generation Case

    OnePetro SPE-184459-MS

    Co-produced water resources in oil & gas fields raise technological interest under the condition of increased energy demand and carbon dioxide emission reduction. Primarily the development of medium and low-temperature co-produced water resources are discussed in terms of energy production and further utilization in the downstream facilities of petroleum industry. Addition of the Organic Rankine cycle (ORC) as a compact binary power plant to the existing scheme allows harvesting a great portion of energy that is usually lost as waste heat. This additional system does not interrupt the main facility streams and operational parameters. The simple case with R134a refrigerant was numerically explored for the wide range of coproduced water flow rates and temperatures. The results show that with the increase of water production the power generation is increased up to 1 MW at 50,000 BWPD and 275℉ water temperature. The economic evaluation shows that the Levelized cost of electricity falls lower than 1.5 cents/kW. With using the proposed scheme on the production facility, the carbon dioxide (CO2) emissions can drop up to 500lb. per operational hour comparing with traditional gas turbine station.

  • Experimental Uncertainty Analysis for Single-Phase Liquid CPU Cooling Heat Sinks

    Proceedings of ASME Early Career Technical Conference (ECTC)

  • Utilization of Co-Produced Water from Oil Production: Energy Generation Case

    OnePetro SPE-184459-MS

    Co-produced water resources in oil & gas fields raise technological interest under the condition of increased energy demand and carbon dioxide emission reduction. Primarily the development of medium and low-temperature co-produced water resources are discussed in terms of energy production and further utilization in the downstream facilities of petroleum industry. Addition of the Organic Rankine cycle (ORC) as a compact binary power plant to the existing scheme allows harvesting a great portion of energy that is usually lost as waste heat. This additional system does not interrupt the main facility streams and operational parameters. The simple case with R134a refrigerant was numerically explored for the wide range of coproduced water flow rates and temperatures. The results show that with the increase of water production the power generation is increased up to 1 MW at 50,000 BWPD and 275℉ water temperature. The economic evaluation shows that the Levelized cost of electricity falls lower than 1.5 cents/kW. With using the proposed scheme on the production facility, the carbon dioxide (CO2) emissions can drop up to 500lb. per operational hour comparing with traditional gas turbine station.

  • Experimental Uncertainty Analysis for Single-Phase Liquid CPU Cooling Heat Sinks

    Proceedings of ASME Early Career Technical Conference (ECTC)

  • Design and Analysis of Electric Power Production Unit for Low Enthalpy Geothermal Reservoir Applications

    https://www.waset.org/author/ildar-akhmadullin

    The subject of this paper is the design analysis of a single well power production unit from low enthalpy geothermal resources. A complexity of the project is defined by a low temperature heat source that usually makes such projects economically disadvantageous using the conventional binary power plant approach. A proposed new compact design is numerically analyzed. This paper describes a thermodynamic analysis, a working fluid choice, downhole heat exchanger (DHE) and turbine calculation results. The unit is able to produce 321 kW of electric power from a low enthalpy underground heat source utilizing n-Pentane as a working fluid. A geo-pressured reservoir located in Vermilion Parish, Louisiana, USA is selected as a prototype for the field application. With a brine temperature of 126 , the optimal length of DHE is determined as 304.8 m (1000ft). All units (pipes, turbine, and pumps) are chosen from commercially available parts to bring this project closer to the industry requirements. Numerical calculations are based on petroleum industry standards. The project is sponsored by the Department of Energy of the US.

  • Utilization of Co-Produced Water from Oil Production: Energy Generation Case

    OnePetro SPE-184459-MS

    Co-produced water resources in oil & gas fields raise technological interest under the condition of increased energy demand and carbon dioxide emission reduction. Primarily the development of medium and low-temperature co-produced water resources are discussed in terms of energy production and further utilization in the downstream facilities of petroleum industry. Addition of the Organic Rankine cycle (ORC) as a compact binary power plant to the existing scheme allows harvesting a great portion of energy that is usually lost as waste heat. This additional system does not interrupt the main facility streams and operational parameters. The simple case with R134a refrigerant was numerically explored for the wide range of coproduced water flow rates and temperatures. The results show that with the increase of water production the power generation is increased up to 1 MW at 50,000 BWPD and 275℉ water temperature. The economic evaluation shows that the Levelized cost of electricity falls lower than 1.5 cents/kW. With using the proposed scheme on the production facility, the carbon dioxide (CO2) emissions can drop up to 500lb. per operational hour comparing with traditional gas turbine station.

  • Experimental Uncertainty Analysis for Single-Phase Liquid CPU Cooling Heat Sinks

    Proceedings of ASME Early Career Technical Conference (ECTC)

  • Design and Analysis of Electric Power Production Unit for Low Enthalpy Geothermal Reservoir Applications

    https://www.waset.org/author/ildar-akhmadullin

    The subject of this paper is the design analysis of a single well power production unit from low enthalpy geothermal resources. A complexity of the project is defined by a low temperature heat source that usually makes such projects economically disadvantageous using the conventional binary power plant approach. A proposed new compact design is numerically analyzed. This paper describes a thermodynamic analysis, a working fluid choice, downhole heat exchanger (DHE) and turbine calculation results. The unit is able to produce 321 kW of electric power from a low enthalpy underground heat source utilizing n-Pentane as a working fluid. A geo-pressured reservoir located in Vermilion Parish, Louisiana, USA is selected as a prototype for the field application. With a brine temperature of 126 , the optimal length of DHE is determined as 304.8 m (1000ft). All units (pipes, turbine, and pumps) are chosen from commercially available parts to bring this project closer to the industry requirements. Numerical calculations are based on petroleum industry standards. The project is sponsored by the Department of Energy of the US.

  • Utilization of Co-Produced Water from Oil Production: Energy Generation Case

    OnePetro SPE-184459-MS

    Co-produced water resources in oil & gas fields raise technological interest under the condition of increased energy demand and carbon dioxide emission reduction. Primarily the development of medium and low-temperature co-produced water resources are discussed in terms of energy production and further utilization in the downstream facilities of petroleum industry. Addition of the Organic Rankine cycle (ORC) as a compact binary power plant to the existing scheme allows harvesting a great portion of energy that is usually lost as waste heat. This additional system does not interrupt the main facility streams and operational parameters. The simple case with R134a refrigerant was numerically explored for the wide range of coproduced water flow rates and temperatures. The results show that with the increase of water production the power generation is increased up to 1 MW at 50,000 BWPD and 275℉ water temperature. The economic evaluation shows that the Levelized cost of electricity falls lower than 1.5 cents/kW. With using the proposed scheme on the production facility, the carbon dioxide (CO2) emissions can drop up to 500lb. per operational hour comparing with traditional gas turbine station.

  • Experimental Uncertainty Analysis for Single-Phase Liquid CPU Cooling Heat Sinks

    Proceedings of ASME Early Career Technical Conference (ECTC)

  • Design and Analysis of Electric Power Production Unit for Low Enthalpy Geothermal Reservoir Applications

    https://www.waset.org/author/ildar-akhmadullin

    The subject of this paper is the design analysis of a single well power production unit from low enthalpy geothermal resources. A complexity of the project is defined by a low temperature heat source that usually makes such projects economically disadvantageous using the conventional binary power plant approach. A proposed new compact design is numerically analyzed. This paper describes a thermodynamic analysis, a working fluid choice, downhole heat exchanger (DHE) and turbine calculation results. The unit is able to produce 321 kW of electric power from a low enthalpy underground heat source utilizing n-Pentane as a working fluid. A geo-pressured reservoir located in Vermilion Parish, Louisiana, USA is selected as a prototype for the field application. With a brine temperature of 126 , the optimal length of DHE is determined as 304.8 m (1000ft). All units (pipes, turbine, and pumps) are chosen from commercially available parts to bring this project closer to the industry requirements. Numerical calculations are based on petroleum industry standards. The project is sponsored by the Department of Energy of the US.

  • Thermal Performance of High-Flow Single-Phase Liquid-Cooled Heat Sinks

    http://proceedings.asmedigitalcollection.asme.org/

Positions

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • Association of Professional Engineers and Geologists of Saskatchewan Canada

    Engineer at trainee

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • Association of Professional Engineers and Geologists of Saskatchewan Canada

    Engineer at trainee

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • Association of Professional Engineers and Geologists of Saskatchewan Canada

    Engineer at trainee

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • Association of Professional Engineers and Geologists of Saskatchewan Canada

    Engineer at trainee

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • Association of Professional Engineers and Geologists of Saskatchewan Canada

    Engineer at trainee

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • Association of Professional Engineers and Geologists of Saskatchewan Canada

    Engineer at trainee

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • Association of Professional Engineers and Geologists of Saskatchewan Canada

    Engineer at trainee

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • Association of Professional Engineers and Geologists of Saskatchewan Canada

    Engineer at trainee

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • Association of Professional Engineers and Geologists of Saskatchewan Canada

    Engineer at trainee

  • American Society of Mechanical Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • American Society of Petroleum Engineers

    member

    urn:li:fs_position:(ACoAAAXbXsgB48QLqRnLHSbJL0tZJDMvm9Ki6fg,156520477)

  • Association of Professional Engineers and Geologists of Saskatchewan Canada

    Engineer at trainee

online

ENGR 1052

4.8(4)

  • Level:
  • Credit hours: 0

ENGR 2453

5(3)

  • Level:
  • Credit hours: 0

FAR 838

5(1)

  • Level:
  • Credit hours: 0

PHSC 1021

5(1)

  • Level:
  • Credit hours: 0
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