A Range-Measuring Linear Positioning Algorithm
A linear positioning and algorithm technology, applied in the direction of measuring devices, geophysical measurement, radio wave measurement systems, etc., can solve the problems of magnetic field vector separation, positioning algorithm multiple solutions, magnetic field noise sensitivity, etc., to achieve enhanced anti-interference ability and Stable, fast effect
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Embodiment 1
[0049] The implementation process of the ranging linear positioning algorithm based on the magnetic gradient tensor at the center of the face center of the three-axis magnetometer regular hexahedron array of the present invention is as follows.
[0050] like figure 1 As shown, a regular hexahedral array of three-axis magnetometers is composed of eight three-axis magnetometers, four three-axis magnetometers are distributed on each plane layer, and there are two layers in total. The array is in the configuration of a regular hexahedron, that is, the eight three-axis magnetometers are respectively located on the vertices of the regular hexahedron, and the side lengths of the regular hexahedron in the x, y and z directions are L respectively x , L y and L z . The center point of the regular hexahedron is P 0 , with P 0 Establish a Cartesian coordinate system P for the origin 0 xyz, Q represent the spatial position of the magnetic body. Side A 1 B 1 C 1 D. 1 、A 2 B 2 C...
Embodiment 2
[0105] Embodiments of the present invention are described in detail below in conjunction with accompanying drawings:
[0106] Step 1. Align the sensitive axes corresponding to the eight three-axis magnetometers with each other, and press figure 1 The configurations shown are respectively placed on two-layer mounting boards to form a regular hexahedron array of three-axis magnetometers.
[0107] Step 2. Calculate the angles according to the spatial positions of the eight three-axis magnetometers of the three-axis magnetometer regular hexahedron array and the cosine value of .
[0108] Step 3. The measurement output of eight three-axis magnetometers collected by the multi-channel data acquisition system and Calculate point P according to formula (1) n The measured values of the five independent components of the magnetic gradient tensor of a magnetic body at and
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[0110] In the formula
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