Page 325 - Geochemical Anomaly and Mineral Prospectivity Mapping in GIS
P. 325

328                                                            References

             Pan, G.C., 1993b. Indicator favorability theory for mineral potential mapping. Nonrenewable
                Resources 2(4): 292-311.
             Pan, G.C., 1993c. Regionalized favorability theory for information synthesis in mineral
                exploration. Mathematical Geology 25(5): 603-631.
             Pan, G.C., Harris, D.P., 1990.  Quantitative analysis of anomalous sources and geochemical
                signatures in the Walker Lake quadrangle of Nevada and California. Journal of Geochemical
                Exploration 38(3): 299-321.
             Pan, G.C., Harris, D.P., 1992a.  Decomposed and weighted characteristic  analysis for the
                quantitative estimation of mineral resources. Mathematical Geology 24(7): 807-823.
             Pan, G.C., Harris, D.P., 1992b. Estimating a favourability equation for the integration of geodata
                and selection of mineral exploration targets. Mathematical Geology 24(2): 177-202.
             Pan, G.C., Harris, D.P., 2000. Information Synthesis for Mineral Exploration, Oxford University
                Press, Inc., New York.
             Pan, G., Harris, D.P., Heiner, T., 1992. Fundamental issues in quantitative estimation of mineral
                resources. Natural Resources Research 1(4): 281-292.
             Pan, G.C., Portefield, B., 1995. Large-scale mineral potential estimation for blind precious metal
                ore deposits. Nonrenewable Resources 4(2): 187-207.
             Panahi, A., Cheng, Q., 2004. Multifractality as a measure of spatial distribution of geochemical
                patterns. Mathematical Geology 36(7): 827-846.
             Panahi, A., Cheng, Q., Bonham-Carter, G.F., 2004. Modelling  lake sediment and geochemical
                distribution  using  principal component, indicator  kriging and multifractal  power-spectrum
                analysis:  a case study  from Gowganda, Ontario. Geochemistry: Exploration,  Environment,
                Analysis 4(1): 59-70.
                                                      th
             Parasnis, D.S., 1997, Principles of Applied Geophysics, 5  edn., Chapman and Hall, London.
             Pardo-Igúzquiza, E., Chica-Olmo, M., 2005. Interpolation and mapping of probabilities for
                geochemical variables exhibiting spatial intermittency. Applied Geochemistry 20(1): 157-168.
             Park, N.-W., Chi, K.-H., Kwon, D.-B., 2007. Accounting for spatial patterns of multiple geological
                data sets in geological thematic mapping using GIS-based spatial  analysis. Environmental
                Geology 51(7): 1147-1155.
             Peh, Z., Miko,  S., Mileusnic,  M., 2006. Areal versus linear  evaluation of relationship between
                drainage basin lithology  and geochemistry of stream and overbank sediments  in low-order
                mountainous drainage basin. Environmental Geology 49(8): 1102-1115.
             Pendharkar, P.C., 2003. Characterization of aggregate fuzzy membership functions using Saaty’s
                eigenvalue approach. Computers & Operations Research 30(2): 199-212.
             Peter, C., Stuart, N., 1999.Modelling river floodplain inundation in space and time. In: B. Gittings
                (Ed.), Integrating Information Infrastructures with GI Technology, Innovations in GIS 6, CRC
                Press, London, pp. 255-267.
             Pirajno, F., 1992. Hydrothermal Mineral Deposits, Principles and Fundamental Concepts for the
                Exploration Geologists, Springer-Verlag, Berlin.
             Plimer, I.R., Elliott, S.M., 1979. The use of Rb/Sr ratios as a guide to mineralization. Journal of
                Geochemical Exploration 12(1): 21-34.
             Polikarpochkin, V.V., 1971. The quantitative estimation of ore-bearing areas from sample data of
                                                              rd
                the drainage system. In: R.W. Boyle (Ed.),  Transactions 3  International  Geochemical
   320   321   322   323   324   325   326   327   328   329   330