Thermodynamic housing for a geophysical data acquisition system and method of use
A thermodynamic housing for a geophysical data acquisition system is provided. The housing includes a novel enclosure cooling system with strategically placed ducting and insulation which maintains proper controller temperature and elevated temperature ambient environments. A novel node enclosure is provided which includes a fail safe 4 bar linkage toggle to ground stakes which enhances physical stability and electrical connectivity.
1. A system for acquiring geophysical data from a surface comprising:
a master controller;
a plurality of node controllers, electronically attached to the master controller;
a plurality of electrodes impressed in the surface; and
wherein at least one node controller of the plurality of node controllers is electronically and mechanically connected to at least one electrode of the plurality of electrodes with a 4-bar linkage toggle;
wherein the at least one node controller, of the plurality of node controllers, further comprises an electrode mount bracket having a raised support section, adjacent the at least one electrode, and rigidly supporting the 4-bar linkage toggle.
2. A system for acquiring geophysical data from a surface comprising:
a master controller;
a plurality of node controllers, electronically attached to the master controller;
a plurality of electrodes impressed in the surface;
wherein at least one node controller of the plurality of node controllers is electronically and mechanically connected to at least one electrode of the plurality of electrodes with a 4-bar linkage toggle; and
wherein the at least one node controller, of the plurality of node controllers, further comprises an electrode mount bracket having a raised support section, adjacent the at least one electrode, and rigidly supporting the 4-bar linkage toggle;
wherein the electrode mount bracket further comprises a clamp channel, adjacent the at least one electrode, and opposing the 4-bar linkage toggle.
3. A system for acquiring geophysical data from a surface comprising:
a master controller;
a plurality of node controllers, electronically attached to the master controller;
a plurality of electrodes impressed in the surface; and
wherein at least one node controller of the plurality of node controllers is electronically and mechanically connected to at least one electrode of the plurality of electrodes with a 4-bar linkage toggle;
wherein the at least one node controller further comprises:
a sealed casing;
the sealed casing supporting an upstream cable connector and a downstream cable connector; and
wherein the upstream cable connector is a first multi-pin connector; and,
wherein the downstream cable connector is a second multi-pin connector.
4. The system of claim 3 , wherein:
the first multi-pin connector is a first 10 pin connector; and
the second multi-pin connector is a second 10 pin connector.
5. The system of claim 3 , wherein the at least one electrode, of the plurality of electrodes, is of stainless steel construction.
6. The system of claim 3 , wherein the at least one electrode, of the plurality of electrodes, is fitted with ground penetration marker gradations.
7. A system for acquiring geophysical data from a surface comprising:
a master controller;
a plurality of node controllers, electronically attached to the master controller;
a plurality of electrodes impressed in the surface;
wherein at least one node controller of the plurality of node controllers is electronically and mechanically connected to at least one electrode of the plurality of electrodes with a 4-bar linkage toggle; and
wherein the master controller further comprises:
an insulated container;
a thermal electric cooler, having a cooling side and a heat rejection side, mounted in the insulated container;
a first compartment, within the insulated container, ductedly connected to a first heat exhaust port, and rigidly supporting a master controller processor board;
a second compartment, with the insulated container, ductedly connected to a first outside air source and the first compartment, and supporting the cooling side; and
a third compartment, within the insulated container, ductedly connected to a second outside air source and a second heat exhaust port and supporting the heat rejection side;
wherein heat is removed from the first compartment and exhausted out the first heat exhaust port.
8. The system of claim 7 , wherein the insulated container further comprises:
a first removable panel adjacent the first compartment; and
a second removable panel adjacent the second compartment and the third compartment.
9. The system of claim 7 , further comprising:
a fourth compartment, within the insulated container, ductedly connected between the first compartment and the first heat exhaust port; and;
a high voltage power supply, electrically connected to the master controller, mounted in the first compartment and the fourth compartment, and exhausting heat from the first compartment, through the fourth compartment, and out the first heat exhaust port.
10. The system of claim 9 , further comprising:
a power inverter, electrically connected to the master controller, the high voltage power supply, and a battery supply source; and
the power inverter further mounted in the first compartment and the fourth compartment, and exhausting heat from the first compartment, through the fourth compartment, and out the first heat exhaust port.
11. The system of claim 9 , further comprising:
an insulated mechanical activation switch, mounted in the insulated container, adjacent the high voltage power supply;
wherein activation of the insulated mechanical activation switch engages the high voltage power supply.
12. The system of claim 7 , further comprising:
a temperature sensor, positioned in the first compartment and operatively connected to the master controller;
wherein the thermal electric cooler is activated by the master controller through reference to the temperature sensor.
13. The system of claim 7 , wherein the thermal electric cooler further comprises:
a Peltier junction, between the second compartment and the third compartment;
a first air mover between the first outside air source and the Peltier junction;
a second air mover between the Peltier junction and the second heat exhaust port; and
whereby heat is removed from the second compartment and the third compartment, by the Peltier junction.
14. The system of claim 7 , wherein the insulated container further comprises:
a support plate, rigidly supported in the insulated container between the first compartment, and the second compartment and the third compartment, for supporting the thermal electric cooler and the master controller processor board, and forming a duct between the first compartment and the second compartment.
15. A method for acquiring geophysical data from a surface further comprising the steps of:
providing a master controller;
providing a plurality of node controllers, electronically attached to the master controller;
providing a plurality of electrodes impressed in the surface;
mechanically and electrically connecting at least one node controller of the plurality of node controllers to at least one electrode of the plurality of electrodes, with a 4-bar linkage toggle; and
providing an electrode mount bracket having a raised support section, adjacent the at least one electrode, and rigidly supporting the 4-bar linkage toggle.
16. A method for acquiring geophysical data from a surface further comprising the steps of:
providing a master controller;
providing a plurality of node controllers, electronically attached to the master controller;
providing a plurality of electrodes impressed in the surface;
mechanically and electrically connecting at least one node controller of the plurality of node controllers to at least one electrode of the plurality of electrodes, with a 4-bar linkage toggle;
providing an electrode mount bracket having a raised support section, adjacent the at least one electrode, and rigidly supporting the 4-bar linkage toggle; and
providing a clamp channel, adjacent the at least one electrode, in the electrode mount bracket.
17. A method for acquiring geophysical data from a surface further comprising the steps of:
providing a master controller;
providing a plurality of node controllers, electronically attached to the master controller;
providing a plurality of electrodes impressed in the surface;
mechanically and electrically connecting at least one node controller of the plurality of node controllers, to at least one electrode of the plurality of electrodes, with a 4-bar linkage toggle;
providing gradations on the at least one electrode of the plurality of electrodes; and
providing an electrode mount bracket having a raised support section, adjacent the at least one electrode, and rigidly supporting the 4-bar linkage toggle.