A computer-implemented method for obtaining an interpreted geologic object or boundaries of geological objects comprising the steps of: obtaining a geologic data volume having a set of cross sections; selecting at least two cross sections from the set of cross sections; and obtaining a first identifier associated with a geologic object in one of the set of cross sections; characterized in that the method further comprises: estimating a transformation vector between the at least two cross sections within the geologic data volume, wherein the transformation vector determines a pixel to pixel correspondence between a first cross section and a second cross section and is determined by shape deformation and movement of boundaries of the geologic object in the second cross section relative to the first cross section; determining an additional identifier associated with the geologic object in at least one additional cross section of the set of cross sections based on the estimated transformation vector and the obtained first identifier; storing the determined identifier of the geologic object in memory; using the transformation vector to calculate the geologic object boundaries; and incorporating the boundaries of the geologic object into a model to identify one or more potential hydrocarbon-bearing zones within a reservoir. obtaining a geologic data volume having a set of cross sections; selecting at least two cross sections from the set of cross sections; and obtaining a first identifier associated with a geologic object in one of the set of cross sections; characterized in that the method further comprises: estimating a transformation vector between the at least two cross sections within the geologic data volume, wherein the transformation vector determines a pixel to pixel correspondence between a first cross section and a second cross section and is determined by shape deformation and movement of boundaries of the geologic object in the second cross section relative to the first cross section; determining an additional identifier associated with the geologic object in at least one additional cross section of the set of cross sections based on the estimated transformation vector and the obtained first identifier; storing the determined identifier of the geologic object in memory; using the transformation vector to calculate the geologic object boundaries; and incorporating the boundaries of the geologic object into a model to identify one or more potential hydrocarbon-bearing zones within a reservoir. estimating a transformation vector between the at least two cross sections within the geologic data volume, wherein the transformation vector determines a pixel to pixel correspondence between a first cross section and a second cross section and is determined by shape deformation and movement of boundaries of the geologic object in the second cross section relative to the first cross section; determining an additional identifier associated with the geologic object in at least one additional cross section of the set of cross sections based on the estimated transformation vector and the obtained first identifier; storing the determined identifier of the geologic object in memory; using the transformation vector to calculate the geologic object boundaries; and incorporating the boundaries of the geologic object into a model to identify one or more potential hydrocarbon-bearing zones within a reservoir. <EOS>