Downhole rotary core analysis using imaging, pulse neutron, and nuclear magnetic resonance
A downhole tool comprising, a coring module for obtaining at least one rotary core sample from a formation, a core storage module for storing the at least one rotary core sample and connected to the coring module, and a motor module for moving the at least one rotary core sample from the coring module to the core storage module and wherein the motor module is connected to the coring module. Additionally, the downhole tool may comprise a first, second, and third sensing modules configured to take measurements of the core sample.
1. A downhole tool comprising:
a coring module for obtaining at least one rotary core sample from a formation;
a core storage module for storing the at least one rotary core sample and connected to the coring module;
a core marker module for marking the at least one rotary core sample with earth coordinates and for determining a top side of the at least one rotary core sample; and
a motor module for moving the at least one rotary core sample from the coring module to the core storage module and wherein the motor module is connected to the coring module.
2. The downhole tool of claim 1 , further comprising a first sensing module disposed between the coring module and core storage module, wherein the coring module, the first sensing module, and the core storage module each comprise individual tubes and when connected together each of the individual tubes form a core tube.
3. The downhole tool of claim 2 , further comprising a push rod disposed within the motor module that moves the at least one rotary core sample along the core tube.
4. The downhole tool of claim 3 , wherein the inner surface of the core tube comprises rigid edges.
5. The downhole tool of claim 4 , further comprising a friction guide marker for holding the at least one rotary core sample in place.
6. The downhole tool of claim 3 , further comprising a second sensing module disposed between the first sensing module and core storage module, wherein the second sensing module comprises an individual tube wherein the individual tube is a segment of the core tube.
7. The downhole tool of claim 6 , wherein the first sensing module and the second sensing module are selected from a group comprising a Nuclear Magnetic Resonance (NMR) module, a core imaging analysis module, or a core pulsed neutron analysis module.
8. The downhole tool of claim 6 , further comprising a third sensing module disposed between the second sensing module and core storage module, wherein the second sensing module comprises an individual tube wherein the individual tube forms with the core tube.
9. downhole tool of claim 8 , wherein the first sensing module, the second sensing module, and the third sensing module are selected from a group comprising a Nuclear Magnetic Resonance (NMR) module, a core imaging analysis module, or a core pulsed neutron analysis module.
10. The downhole tool of claim 9 , wherein the NMR module provides one or more measurements, wherein one or more measurements are relaxation times of Hydrogen nuclei within the at least one rotary core sample.
11. The downhole tool of claim 9 , wherein the core imaging analysis module provides one or more measurements, wherein the one or more measurements are x-ray, ultrasonic, resistivity, microstrip resistivity, or any combination thereof measurements of the at least one rotary core sample.
12. The downhole tool of claim 9 , wherein the core pulsed neutron analysis module provides one or more measurements, wherein the one or more measurements are concentrations of Aluminum, Barium, Carbon, Calcium, Chlorine, Iron, Gadolinium, Potassium, Magnesium, Manganese, Sodium, Sulfur, Silicon, or Titanium from the at least one rotary core sample.
13. A method comprising:
obtaining at least one rotary core sample from a formation with a coring module;
moving the at least one rotary core sample from the coring module to a core storage module with a motor module, wherein the motor module is connected to the coring module;
marking the at least one rotary core sample with earth coordinates with a core marker module;
determining a top side of the at least one rotary core sample; and
storing the at least one rotary core sample with a core storage module.
14. The method of claim 13 , further comprising sensing the at least one rotary core sample with a first sensing module, wherein the first sensing module is connected between the coring module and core storage module.
15. The method of claim 14 , further comprising sensing the at least one rotary core sample with a second sensing module, wherein the second sensing module is connected between the first sensing module and core storage module.
16. The method of claim 15 , further comprising sensing the at least one rotary core sample with a third sensing module, wherein the third sensing module is connected between the second sensing module and core storage module.
17. The method of claim 16 , wherein the first sensing module, the second sensing module, and the third sensing module are selected from a group comprising an NMR module, a core imaging analysis module, or a core pulsed neutron analysis module.
18. The method of claim 17 , wherein the NMR module provides one or more measurements, wherein one or more measurements are relaxation times of Hydrogen nuclei within the at least one rotary core sample.
19. The method of claim 17 , wherein the core imaging analysis module provides one or more measurements, wherein the one or more measurements are x-ray, ultrasonic, resistivity, microstrip resistivity, or any combination thereof measurements of the at least one rotary core sample.
20. method of claim 17 , wherein the core pulsed neutron analysis module provides one or more measurements, wherein the one or more measurements are concentrations of Aluminum, Barium, Carbon, Calcium, Chlorine, Iron, Gadolinium, Potassium, Magnesium, Manganese, Sodium, Sulfur, Silicon, or Titanium from the at least one rotary core sample.