FIELD: physics.
SUBSTANCE: with the help of the "Gravity" module, a gravitational-dynamic model of the investigated territory relief is constructed on a scale sufficient for tracing the drainage gulls representing the valleys of the first-order watercourses. The order of the watercourses with the "Hydroset" module is ranked. The extent of the area with the "Isoliniya" module is specified, on which a uniform lattice is constructed with a constant adjustable step and the origin at the lower left point of the extent, then isohypsopachite is searched for each lattice site. The vector space-time field is calculated by the "Gradient" module through the largest power gradient of the difference layer between the basis surfaces of adjacent orders at each lattice site. The parameters of tectonic stress differentiation within the tectonic block are calculated from the values of the largest power gradients of the difference layer at each lattice site that fall within the boundaries of the tectonic block. The resulting vector, which is the largest power gradient of the difference layer within the boundaries of the tectonic block, where the relative block speed is equal to the gradient module, is calculated with the "Block" module. Herewith the direction of the block vector is the direction of the block movement. The blocks-concentrators of tectonic stresses are identified along the centripetal direction of the power gradients of the difference layer of the surrounding blocks, characterizing their movement to the concentrator block. Upon the fact of convergence of the largest power gradient of the difference layer of the neighbouring blocks, the type of tectonic compressive stress is fixed. Upon the fact of the divergence of the largest power gradient of the difference layer of the neighbouring blocks, the type of tectonic tensile stress is fixed.
EFFECT: construction of a vector space-time field of tectonic stresses and the isolation of tectonic stress concentrator blocks in an unlimited area.
4 cl, 9 dwg
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Authors
Dates
2018-01-17—Published
2016-04-05—Filed