Experiment on dynamic absolute gravity measurement based on cold atom gravimeter

Cheng Bing; Chen Pei-Jun; Zhou Yin; Wang Kai-Nan; Zhu Dong; Chu Li; Weng Kan-Xing; Wang He-Lin; Peng Shu-Ping; Wang Xiao-Long; Wu Bin; Lin Qiang

doi:10.7498/aps.71.20211449

Abstract

Dynamic gravity measurements can improve the survey efficiency of the gravity field, and can play an important role in implementing the basic geological surveys, resource exploration, and geophysical research. Based on cold atom gravimeter, inertial stabilization platform and the movable vehicle device, a system for dynamically measuring absolute gravity is built, and the dynamic measurement experiments are carried out. Firstly, the noise power spectra of the vertical vibration are measured at different moving velocities, and the influence of such a vibration on the measurement of absolute gravity is analyzed theoretically. Besides, the influence on the contrasts and offsets of the atomic interference fringes are evaluated from different moving velocities, then the effect of vibration compensation in the dynamic measurement environment is analyzed. When the maximum moving speed is 5.50 cm/s and the maximum vibration amplitude is 0.1 m/s², the atomic interference fringes can still be rebuilt based on the technology of vibration compensation. On this basis, the atomic interference fringes are obtained at different values of T and different moving velocities, then the absolute gravity value in the dynamic measurement environment is evaluated. After the correction of the systematic system and subtraction by the initial value of absolute gravity, the final measured result is (–1.22 ± 2.42) mGal. Finally, the experiment on the static absolute gravity is conducted, and the two values are found to be not much different from each other through comparing the static measurement data with the dynamic measurement data. The experiment of dynamic absolute gravity measurement in this paper may provide the helpful reference data for the dynamic absolute gravity measurement with moving vehicles.

Keywords:

Authors and contacts

1.
College of Science, Zhejiang Provincial Key Laboratory of Quantum Precision Measurement, Zhejiang University of Technology, Hangzhou 310023, China
2.
School of Mechanical and Electrical Engineering, Huangshan University, Huangshan 245041, China

Corresponding author: Wu Bin, wubin@zjut.edu.cn ; Lin Qiang, qlin@zjut.edu.cn

Funds: Project supported by the National Key Research and Development Program of China (Grant No. 2017YFC0601602), the National Natural Science Foundation of China (Grant Nos. 51905482, 61727821, 61875175, 11704334), and the China Aero Geophysical Survey and Remote Sensing Center for Natural Resources Program, China (Grant No. DD20189831).

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References

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Cited By

图 1 动态绝对重力测量的原理示意图

Figure 1. The schematic diagram of dynamic measurement of the absolute gravity.

DownLoad: Full-Size Img PowerPoint

图 2 动态迭代条纹拟合算法的原理示意图

Figure 2. The schematic diagram of iterative fitting algorithm of the dynamic fringes.

DownLoad: Full-Size Img PowerPoint

图 3 绝对重力动态测量系统示意图和实物图　(a) 实验装置示意图; (b) 实验装置实物图; (c) 20 h中的温湿度统计曲线

Figure 3. The diagram and photo of the system for dynamic measurement of the absolute gravity: (a) The diagram of the experimental system; (b) the photo of the experimental apparatus; (c) the curve of temperature and humidity in 20 h.

DownLoad: Full-Size Img PowerPoint

图 4 垂向振动噪声对动态重力测量的影响　(a) 静止与运动状态下垂向振动加速度的噪声功率谱; (b) 垂向振动噪声引起的重力测量不确定度

Figure 4. The influence of vertical vibration noise on the dynamic measurement of the absolute gravity: (a) The power density spectra of vertical vibration noise in the case of static and dynamic environment; (b) the measurement uncertainty resulted from the noise of vertical vibration.

DownLoad: Full-Size Img PowerPoint

图 5 不同牵引速度下的原子干涉条纹恢复及其正弦拟合结果(T = 4 ms)

Figure 5. The results of the recovering and fitting of the atomic interference fringes with the different moving speeds (T = 4 ms).

DownLoad: Full-Size Img PowerPoint

图 6 动态测量环境下下原子干涉条纹对比度与直流偏置量变化　(a) 原子干涉条纹对比度随牵引速度的变化曲线; (b) 原子干涉条纹直流偏置量随牵引速度的变化曲线

Figure 6. The changes of the contrast and offset of atomic interference fringes in the case of dynamic measurement environment: (a) The changing curve of the contrast of atomic interference fringes with the moving velocity; (b)the changing curve of the offset of atomic interference fringes with the moving velocity.

DownLoad: Full-Size Img PowerPoint

图 7 不同牵引速度、不同T下测量到的绝对重力值均值及其不确定度分析　(a) 绝对重力值的均值数据; (b) 绝对重力值的不确定度数据

Figure 7. Analysis of the mean values and uncertainties of the absolute gravity measurement at the different velocities and different T: (a) The data of mean value of the absolute gravity measurement; (b) the uncertainties of the absolute gravity measurement.

DownLoad: Full-Size Img PowerPoint

图 8 修正完科里奥利效应后的动态绝对重力测量结果(T = 20 ms)

Figure 8. The final experimental results of the dynamic absolute gravity measurement after the correction of the Coriolis effect (T = 20 ms).

DownLoad: Full-Size Img PowerPoint

图 9 静态环境下的高精度绝对重力值评估　(a) 静态下不同T的绝对重力测量结果; (b) T = 55 ms长时间静态绝对重力测量结果

Figure 9. The accurate evaluation of the absolute gravity in the case of static gravity measurement: (a) Absolute gravity measurements of different T at static state; (b) static absolute gravimetric measurements of T = 55 ms for a long time.

DownLoad: Full-Size Img PowerPoint

表 1 由科里奥利力效应引起的重力值修正

Table 1. The systematic corrections caused by the Coriolis effect.

Moving velocity/(cm·s^–1)	0.55	1.35	2.25	3.75
$ \Delta g $/mGal	0.0006	0.0024	0.0250	0.0400

DownLoad: CSV

表 2 车间静止测量分组重力值

Table 2. The measured gravity value in the quiet place of a workshop.

时间/h	重力均值/mGal
1.0	–2.26
1.5	–2.27
2.0	–2.31
2.5	–2.22
3.0	–2.35
3.5	–2.33

DownLoad: CSV

表 3 车间静止下的B类不确定度表

Table 3. The uncertainties of type B in case of static measurement in the workshop.

项目	修正量/μGal	不确定度/μGal
科里奥利力	–3.0	0.2
双光子光移效应	–43.2	4.0
重力梯度	–9.0	0.1
激光波长	–5.5	1.1
参考频率	0.0	2.0
射频相移	0.0	2.0
自引力效应	–2.7	0.1
其他修正量	0.0	4.0
合成结果	–63.4	13.5

DownLoad: CSV

map

[1]	Bouchendira R, Clade P, Guellati Khelifa S, Nez F, Biraben F 2011 Phys. Rev. Lett 106 080801 Google Scholar
[2]	Parker R H, Yu C, Zhong W, Estey B, Müller H 2018 Science 360 191 Google Scholar
[3]	Rosi G, Sorrentino F, Cacciapuoti L, Prevedelli M, Tino G 2014 Nature 510 518 Google Scholar
[4]	Fu Z J, Wu B, Cheng B, Zhou Y, Weng K X, Zhu D, Wang Z Y, Lin Q 2019 Metrologia 56 025001 Google Scholar
[5]	Menoret V, Vermeulen P, Le Moigne N, Bonvalot S, Bouyer P, Landragin A, Desruelle B 2018 Sci. Rep 8 12300 Google Scholar
[6]	Bidel Y, Carraz O, Charriere R, Cadoret M, Zahzam N, Bresson A 2013 Appl. Phys. Lett 102 144107 Google Scholar
[7]	Cheiney P, Fouche L, Templier S, Napolitano F, Battelier B, Bouyer P, Barrett B 2018 Phys. Rev. Appl 10 034030 Google Scholar
[8]	Zhang L, Gao W, Li Q, Li R, Yao Z, Lu S 2019 Sensors 19 222 Google Scholar
[9]	Canuel B, Leduc F, Holleville D, Gauguet A, Fils J, Virdis A, Clairon A, Dimarcq N, Borde C J, Landragin A 2006 Phys. Rev. Lett 97 010402 Google Scholar
[10]	Kasevich M, Chu S 1992 Appl. Phys. B 54 321 Google Scholar
[11]	Yao Z W, Lu S B, Li R B, Wang K, Cao L, Wang J, Zhan M S 2016 Chin. Phys. Lett 33 083701 Google Scholar
[12]	Hu Z K, Sun B L, Duan X C, Zhou M K, Chen L L, Zhan S, Zhang Q Z, Luo J 2013 Phys. Rev. A 88 043610 Google Scholar
[13]	Freier C, Hauth M, Schkolnik V, Leykauf B, Schilling M, Wziontek H, Scherneck H G, Muller J, Peters A 2016 J. Phys. :Conf. Ser 723 012050 Google Scholar
[14]	Le Gouet J, Mehlstaubler T E, Kim J, Merlet S, Clairon A, Landragin A, Dos Santos F P 2008 Appl. Phys. B 92 133 Google Scholar
[15]	Wang S K, Zhao Y, Zhuang W, Li T C, Wu S Q, Feng J Y, Li C J 2018 Metrologia 55 360 Google Scholar
[16]	Gillot P, Francis O, Landragin A, Dos Santos F P, Merlet S 2014 Metrologia 51 L15 Google Scholar
[17]	吴彬, 程冰, 付志杰, 朱栋, 周寅, 翁堪兴, 王肖隆, 林强 2018 67 190302 Google Scholar Wu B, Cheng B, Fu Z J, Zhu D, Zhou Y, Weng K X, Wang X L, Lin Q 2018 Acta Phys. Sin 67 190302 Google Scholar
[18]	Zhang X W, Zhong J Q, Tang B, Chen X, Zhu L, Huang P W, Wang J, Zhan M S 2018 Appl. Opt 57 6545 Google Scholar
[19]	Wu X J, Zi F, Dudley J, Bilotta R J, Canoza P, Muller H 2017 Optica 4 1545 Google Scholar
[20]	吴彬, 程冰, 付志杰, 朱栋, 邬黎明, 王凯楠, 王河林, 王兆英, 王肖隆, 林强 2019 68 194205 Google Scholar Wu B, Cheng B, Fu Z J, Zhu D, Wu L M, Wang K N, Wang H L, Wang Z Y, Wang X L, Lin Q 2019 Acta Phys. Sin 68 194205 Google Scholar
[21]	Fu Z J, Wang Q Y, Wang Z Y, Wu B, Cheng B, Lin Q 2019 Chin. Opt. Lett 17 011204 Google Scholar
[22]	Huang P W, Tang B, Chen X, Zhong J Q, Xiong Z Y, Zhou L, Wang J, Zhan M S 2019 Metrologia 56 045012 Google Scholar
[23]	Wu X J, Pagel Z, Malek B S, Nguyen T H, Zi F, Scheirer D S, Muller H 2019 Sci. Adv 5 eaax0800 Google Scholar
[24]	吴彬, 周寅, 程冰, 朱栋, 王凯楠, 朱欣欣, 陈佩军, 翁堪兴, 杨秋海, 林佳宏, 张凯军, 王河林, 林强 2020 69 060302 Google Scholar Wu B, Zhou Y, Cheng B, Zhu D, Wang K N, Zhu X X, Chen P J, Weng K X, Yang Q H, Lin J H, Zhang K J, Wang H L, Lin Q 2020 Acta Phys. Sin 69 060302 Google Scholar
[25]	Barrett B, Antoni-Micollier L, Chichet L, Battelier B, Lévèque T, Landragin A, Bouyer P 2016 Nat. Commun 7 1
[26]	Geiger R, Ménoret V, Stern G, Zahzam N, Cheinet P, Battelier B, Villing A, Moron F, Lours M, Bidel Y, Bresson A, Landragin A, Bouyer P 2011 Nat. Commun 2 474 Google Scholar
[27]	Mahadeswaraswamy C 2009 Atom Interferometric Gravity Gradiometer: Disturbance Compensation and Mobile Gradiometry (California: Stanford University Press).
[28]	Bidel Y, Zahzam N, Blanchard C, Bonnin A, Cadoret M, Bresson A, Rouxel D, Lequentrec-Lalancette M F 2018 Nat. Commun 9 9 Google Scholar
[29]	Bidel Y, Zahzam N, Bresson A, Blanchard C, Cadoret M, Olesen A V, Forsberg R 2020 J. Geodesy 94 2 Google Scholar
[30]	Peters A, Chung K Y, Chu S 1999 Nature 400 849 Google Scholar
[31]	Peters A, Chung K Y, Chu S 2001 Metrologia 38 25 Google Scholar
[32]	程冰, 周寅, 陈佩军, 张凯军, 朱栋, 王凯楠, 翁堪兴, 王河林, 彭树萍, 王肖隆, 吴彬, 林强 2021 70 040304 Google Scholar Cheng B, Zhou Y, Chen P J, Zhang K J, Zhu D, Wang K N, Weng K X, Wang H L, Peng S P, Wang X L, Wu B, Lin Q 2021 Acta Phys. Sin 70 040304 Google Scholar

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