Daniel Frances

 Daniel Frances

Daniel Frances

  • Courses10
  • Reviews22

Biography

University of Toronto St. George Campus - Industrial Engineering



Experience

  • University of Toronto

    Professor, Teaching Stream

    Daniel worked at University of Toronto as a Professor, Teaching Stream

  • University of Toronto

    Senior Lecturer

    Daniel worked at University of Toronto as a Senior Lecturer

  • University of Toronto

    Associate Professor, Teaching Stream

    Daniel worked at University of Toronto as a Associate Professor, Teaching Stream

  • Hydro One Networks

    Manager Information Assets

    Responsible for management of IT investments, including the power system data center for provision of complete and up-to-date information on all power system components and their inter-connectivity. Accountable for NT and UNIX servers (e.g. database, applications, Web), development and maintenance of applications (using VB, C, MS Access), interfaces with other enterprise databases (e.g. SAP, People Soft, Passport) and database management (e.g. Oracle).

  • Ontario Hydro

    Section Head, Power Systems Operations Division

    Responsible for identifying opportunities for reducing the overall electricity production costs for the province of Ontario and specifying, developing, implementing and maintaining IT applications to facilitate such savings.

Education

  • University of Toronto

    Ph.D.

    Industrial Engineering/Operations Research

  • University of Toronto

    Professor, Teaching Stream



  • University of Toronto

    Senior Lecturer



  • University of Toronto

    Associate Professor, Teaching Stream



Publications

  • Models for Predicting Critical Blood Product Shortages

    in Modelling Efficiency & Quality in Health Care: Proceedings of 29th meeting of the EURO Working Group on Operational Research Applied to Health Services

    The paper describes a study to develop prototype simulation models to predict the likelihood, and assess the subsequent medical consequences of, blood product shortages. The models account for uncontrollable factors such as random donation and patient demand, as well as policies controlling blood product expiries and hospital restocking. The complexities in blood type matching and issuing policies which depend on inventory levels were captured where appropriate. The study was conducted in three settings: urban, semi urban and rural. The model quantifies the hourly inventory patterns of blood centers and specific hospitals, as well as predicting the risks of shortages and subsequent medical consequences of these shortages. The model was validated against inventory levels and outdates and was considered to be sufficiently accurate by the blood bank and hospital staff for use of the model as a decision support tool.

MIE 360

1.5(2)

MIE 363

3.3(3)

MIE 365

4.8(2)

MIE 367

1.8(5)

MIE 566

2.5(4)

online

APS 1040

1(2)