Underwater submerged buoy formation optimization method of manned submersible vehicle long base-line positioning system
A baseline positioning and optimization method technology, applied in the field of ocean exploration, can solve problems such as inaccurate formation of arrays, inaccurate array of underwater submarine marks, discounts for ocean scientific research projects, etc., and achieve significant progressive results
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0025] Such as figure 1 As shown, a manned submersible long baseline positioning system underwater submersible mark array optimization method, including the following steps:
[0026] The first step is to detect the water depth and drive the mother ship to an area with an ocean depth of about 5,000 meters;
[0027] The second step is to lock the latitude and longitude of the mother ship and record it;
[0028] The third step is to launch the beacon, including the following small steps:
[0029] ① Release 1# beacon, record the latitude and longitude, detect the depth of sea water during the release process and record the final depth;
[0030] ② At a distance of 2km-3.5km from the 1# beacon, release the 2# beacon, record the latitude and longitude, detect the depth of the seawater during the release process and record the final depth;
[0031] ③In the direction perpendicular to the connection line between 1# beacon and 2# beacon, place 3# beacon at a distance of 2km-3.5km from...
Embodiment 2
[0042] The first step is to recycle 1#, 2#, 3#, 4#, take the 1# beacon as the origin, re-release the beacon in the rectangle formed by the beacon, and rotate it at a certain angle.
[0043] The second step is to launch the beacon, including the following small steps:
[0044] ① Release 1# beacon, record the latitude and longitude, detect the depth of sea water during the release process and record the final depth;
[0045] ② At a distance of 2km-3.5km from the 1# beacon, release the 2# beacon, record the latitude and longitude, detect the depth of the seawater during the release process and record the final depth;
[0046] ③In the direction perpendicular to the connection line between 1# beacon and 2# beacon, place 3# beacon at a distance of 2km-3.5km from 2# beacon, record the latitude and longitude, detect the depth of seawater during the launch process and record the final depth;
[0047] ④ Put the 4# beacon at the symmetrical position of the 1# and 3# connection lines of ...
Embodiment 3
[0057] The first step is to recycle 1#, 2#, 3#, 4#, take point O as the origin, transform the rectangle into a triangle and launch the beacon again;
[0058] The second step is to launch the beacon, including the following small steps:
[0059] ① Release 1# beacon, record the latitude and longitude, detect the depth of sea water during the release process and record the final depth;
[0060] ② At a distance of 2km-3.5km from the 1# beacon, release the 2# beacon, record the latitude and longitude, detect the depth of the seawater during the release process and record the final depth;
[0061] ③In the direction perpendicular to the connection line between 1# beacon and 2# beacon, place 3# beacon at a distance of 2km-3.5km from 2# beacon, record the latitude and longitude, detect the depth of seawater during the launch process and record the final depth;
[0062] ④ Put the 4# beacon at the symmetrical position of the 1# and 3# connection lines of the 2# beacon, record the latitu...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 