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Dr. Manmohan Singh   Senior Lecturer

Profile Photo
Areas:
Mathematics
Tissue Engineering
Office:
EN708e
Phone:
+61 3 9214 8024
E-Mail:
msingh@swin.edu.au
Campus:
Hawthorn
Faculty of Engineering & Industrial Sciences (H38)
Swinburne University of Technology
PO Box 218
Hawthorn, Victoria, 3122
Australia

Qualifications

Msc(Roorkee) PhD(Roorkee)

Major Research Interest

  • Mathematical Biology
  • Numerical Methods
  • Theoretical Astrophysics

Teaching Area

  • Engineering Mathematics

Membership of Professional organisations

  • Australian Mathematical Society
  • Society for Mathematical Biology

Supervision of higher degree by research (HDR) (Current students)

NameDegreeResearch CentreStart yearRoleInstitution
Hung Do PhDFaculty2009Associate SupervisorSwinburne

Gaganjyoti SandhuA numerical study on biological control of invasive predator population to protect endangered prey population
 PhDFaculty2010Primary SupervisorSwinburne

Saleh Hassanzadeh GharaiePhDFaculty2011Co-SupervisorSwinburne

Afia NaheedA study on the numerical modelling of the spatio-temporal spread of infectious diseases
 PhDMaths2011Primary SupervisorSwinburne


Previously Supervised higher degree by research (HDR) students

NameDegreeResearch CentreStatusRoleInstitution
Md SamsuzzohaA study on numerical simulations of epidemic models
 PhDFacultyCompletedPrimary SupervisorSwinburne

Nooshin Sadeghi TaheriMEngFacultyCompletedCo-SupervisorSwinburne

Aspriha ChakrabortyA numerical study of modelling in a predator-prey system
 PhDCompletedPrimary SupervisorSwinburne


Topics for Prospective Ph.D Students - View ALL topics for Dr. Manmohan Singh

A study on numerical simulations of epidemic models
In order to simulate the outbreak of a disease it is proposed to consider numerical simulations of deterministic differential equations in conjunction with stochastic environments. A strong partnership between deterministic and stochastic simulations will be developed to draw meaningful conclusions in the prevailing complex situations.

A Theoretical Study on the Formation of Spatial Patterns on Twospotted Spider Mite
The aim of this project is to predict the formation of spatial patterns on twospotted spider mite.

First, Logistic Lotka – Volterra predator – prey equations will be used to obtain the conditions for the spatial pattern generated by diffusion – driven instability.

Numerical Modelling of Tides
This project will focus on using the nonlinear shallow water wave equations to numerically model tides in bays, including ones with tidal flats and hence moving shorelines.

Media

  • Mite Versus Mite in Deadly Numbers Game

    Mite Versus Mite in Deadly Numbers Game

    Mathematicians are finding that equations for modelling interactions between predators and prey have a surprising array of applications in the human world, from biological control of crop pests to cancer research

Selected Publications

  1. Samsuzzoha M., Singh M. and Lucy D., Numerical study of an influenza epidemic model with diffusion, Applied Mathematics and Computation, 217, 3461-3479, 2010.
  2. Chakraborty A., Singh M. and Ridland P., “Effects of prey–taxis on biological control of two–spotted mites– A numerical approach”, Journal of Mathematical and Computer Modelling, 50, 598–610, 2009.
  3. Chakraborty A., Singh M., Lucy D. and Ridland P., “A Numerical study of the formation of spatial patterns in two–spotted spider mites”, Journal of Mathematical and Computer Modelling, 49, 482–498, 2009. Ranking
  4. Chakraborty A. and Singh M.., “Effects of prey–taxis on the periodicity of predator–prey dynamics”, Journal of Canadian Applied Mathematics Quarterly (CAMQ), 16, No3 Fall 2008.
  5. Arundell J., Blicblau A. Richards D. and Singh M., “Dynamic hip fracture modelling”, ANZIAM Journal (E), 50, C220––236, 2008.
  6. Lai T.C., Morsi Y. S. and Singh M., Numerical Characterization of the flow field in a four-generation airway, Journal of Mechanics in Medicine and Biology, 8, No 1, 1-20, 2008.
  7. Chakraborty A., Singh M., Lucy D. and Ridland P., “Predator–Prey Models with prey–taxis and diffusion”, Mathematical and Computer Modelling, 46, 482–498, 2007.
  8. Kozlova I., Singh M., Easton A. and Ridland P., T“wospotted Spider Mite Predator–Prey Model”, Mathematical and Computer Modelling, 42, 1287–1298, 2005.
  9. Kozlova I., Singh M. and Easton A., “Predator prey models with diffusion based on Luckinbill's experiment with Didinium and Paramecium”, Mathematical and Computer Modelling, 36, 83–102, 2002.
  10. Singh M., Easton A. and Kozlova I., “Numerical study of the two–dimensional spruce budworm reaction–diffusion equation with hostile boundaries”, Natural Resource Modeling, 13, No 4, 535–554, 2000.
  11. Freedman H. I., Singh M., Easton A. K and Baggs I., “Mathematical models of population distribution within a culture group”, Mathematical and Computer Modelling, 29, 57–67, 1999.
  12. Singh M., Easton A., Cui G. and Kozlova I., “Numerical study of the two–dimensional spruce budworm reaction–diffusion equation with density dependent diffusion”, Natural Resource Modeling, 11, No 2, 143–54, 1998.
  13. Singh M. and Singh G., “Several Composite Models of Critically Rotating and Tidally distorted Polytropes”; Journal Astronomical Society of Japan, 36, 119–122, 1984;; Journal Astronomical Society of Japan, 36, 119–122, 1984.
  14. Singh M, “Effect of Central Condensation on the Pulsation Characteristics”, Monthly Notices Royal Astronomical Society, London, 140, 235–240, 1968.