A Method for Restoring Paleo-sedimentary Boundaries of Basins Based on Stability Factors of Heavy Minerals
A stability coefficient and mineral technology, applied in the direction of electrical digital data processing, special data processing applications, instruments, etc., can solve the problems of strong multi-solution and high probability of sedimentary boundaries in basins, and achieve effective restoration of ancient sedimentary boundaries, reduce errors, The effect of reasonable transport distance
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Embodiment 1
[0028] Example 1, W area
[0029] A method for restoring the paleo-sedimentary boundary of a basin based on the stability coefficient of heavy minerals, comprising the following steps:
[0030] 1) Homing the isochronous intervals of the samples from the sedimentary-heavy mineral area in the W area, adding and summing the arithmetic mean values of the stable minerals and unstable minerals and heavy minerals in the samples of each isochronous interval, and then dividing them, Obtain the representative values of the heavy mineral stability coefficients of each isochronous interval in this area (Table 2);
[0031] Table 2 List of representative values of heavy mineral stability coefficients and their transportation distances in different eras in W area
[0032]
[0033] 2) Substituting the representative value of the heavy mineral stability coefficient obtained in step 1) into the relationship formula between the heavy mineral stability coefficient and the transport dist...
Embodiment 2
[0039] Embodiment 2, D area
[0040] A method for restoring the paleo-sedimentary boundary of a basin based on the stability coefficient of heavy minerals, comprising the following steps:
[0041] 1) Homing the isochronous intervals of the samples from the sedimentary-heavy mineral area in D area, adding and summing the arithmetic mean values of the stable minerals and unstable minerals and heavy minerals in the samples of each isochronous interval, and then dividing them, Obtain the representative value of the heavy mineral stability coefficient of each isochronous layer in the area, and further fit to obtain the exponential relationship K of the representative value of the heavy mineral stability coefficient in the area with time x =27.291e -3.769x ,
[0042] In the formula: Kx is the calculation representative value of the stability coefficient in different periods, X is the serial number of the geological era, and the correlation coefficient r=0.943 is close to 1, whic...
Embodiment 3
[0052] Example 3, Region Y
[0053] A method for restoring the paleo-sedimentary boundary of a basin based on the stability coefficient of heavy minerals, comprising the following steps:
[0054] 1) Homing the isochronous intervals of the samples from the sedimentary-heavy mineral area in the Y area, adding and summing the arithmetic mean values of the stable minerals and unstable minerals and heavy minerals in the samples of each isochronic interval, and then dividing them, Obtain the representative value of the heavy mineral stability coefficient of each isochronous layer in the area, and further fit to obtain the exponential relationship K of the representative value of the heavy mineral stability coefficient in the area with time x =27.708e -0.3908x ,
[0055] In the formula: Kx is the calculation representative value of the stability coefficient in different periods, X is the serial number of the geological era, and the correlation coefficient r=0.929 is close to 1, w...
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