High-frequency boundary layer profiling with reusable radiosondes

被引:22
|
作者
Legain, D. [1 ]
Bousquet, O. [1 ,2 ]
Douffet, T. [1 ]
Tzanos, D. [1 ]
Moulin, E. [1 ]
Barrie, J. [1 ]
Renard, J. -B. [3 ]
机构
[1] Meteo France, CNRS, CNRM GAME, UMR3589, Toulouse, France
[2] Univ La Reunion, CNRS, Meteofrance, LACy,UMR8105, St Denis, Reunion, France
[3] Univ Orleans, CNRS, LPC2E, Orleans, France
关键词
VERTICAL AIR MOTION;
D O I
10.5194/amt-6-2195-2013
中图分类号
P4 [大气科学(气象学)];
学科分类号
0706 ; 070601 ;
摘要
A new system for high-frequency boundary layer profiling based upon radiosondes and free balloons was tested during the field phases of the Boundary Layer Late Afternoon and Sunset Turbulence experiment (BLLAST 2011, Lannemezan, France) and of the Hydrological cycle in the Mediterranean Experiment (HyMeX, 2012). The system consists of a conventional Vaisala receiver and a GPS radiosonde (pressure, wind, humidity and temperature), that is tied to a couple of inflated balloons. The principle of the sounding system is to permit the first balloon to detach from the rawinsonde at a predetermined altitude, allowing for the rawinsonde to slowly descend with the second balloon to perform a second, new sounding. The instrumentation is then eventually recovered. The expecting landing area is anticipated before the flight by estimating the trajectory of the probe from a forecasted wind profile and by specifying both the balloon release altitude and the mean ascent and descent rates of the system. The real landing point is determined by the last transmission of the radiosonde GPS and the visual landmark provided by the second balloon. Seventy-two soundings were performed during BLLAST (62) and HyMeX (10), with a recovery rate of more than 80% during the BLLAST field campaign. Recovered radiosondes were generally reused several times, often immediately after recovery, which definitely demonstrates the high potential of this system.
引用
收藏
页码:2195 / 2205
页数:11
相关论文
共 50 条
  • [1] Oscillations of the Boundary Layer and High-frequency QPOs
    Blinova, A. A.
    Bachetti, M.
    Romanova, M. M.
    PHYSICS AT THE MAGNETOSPHERIC BOUNDARY, 2014, 64
  • [2] Nonuniform distribution of high-frequency turbulence in the unstable boundary layer
    Kinoshita, N
    BOUNDARY-LAYER METEOROLOGY, 2003, 106 (01) : 61 - 91
  • [3] Nonuniform Distribution Of High-Frequency Turbulence In The Unstable Boundary Layer
    Nobuyuki Kinoshita
    Boundary-Layer Meteorology, 2003, 106 : 61 - 91
  • [4] High-frequency instabilities of stationary crossflow vortices in a hypersonic boundary layer
    Li, Fei
    Choudhari, Meelan
    Paredes, Pedro
    Duan, Lian
    PHYSICAL REVIEW FLUIDS, 2016, 1 (05):
  • [5] High-Frequency Electric Machines for Boundary Layer Ingestion Fan Propulsor
    Yoon, Andy
    Xiao, Jianqiao
    Lohan, Danny
    Arastu, Faraz
    Haran, Kiruba
    IEEE TRANSACTIONS ON ENERGY CONVERSION, 2019, 34 (04) : 2189 - 2197
  • [6] DIELECTRIC CERAMICS WITH BOUNDARY-LAYER STRUCTURE FOR HIGH-FREQUENCY APPLICATION
    MASUNO, K
    MURAKAMI, T
    WAKU, S
    IEEE TRANSACTIONS ON SONICS AND ULTRASONICS, 1972, SU19 (02): : 315 - &
  • [7] Boundary-layer approach to high-frequency diffraction by a jump of curvature
    Zlobina, Ekaterina A.
    Kiselev, Aleksei P.
    WAVE MOTION, 2020, 96
  • [8] DIELECTRIC CERAMICS WITH BOUNDARY-LAYER STRUCTURE FOR HIGH-FREQUENCY APPLICATION
    MASUNO, K
    MURAKAMI, T
    WAKU, S
    FERROELECTRICS, 1972, 3 (2-3-) : 315 - &
  • [9] The boundary integral equations method for analysis of high-frequency vibrations of an elastic layer
    Sergey Sorokin
    Radek Kolman
    Jan Kopacka
    Archive of Applied Mechanics, 2017, 87 : 737 - 750
  • [10] The boundary integral equations method for analysis of high-frequency vibrations of an elastic layer
    Sorokin, Sergey
    Kolman, Radek
    Kopacka, Jan
    ARCHIVE OF APPLIED MECHANICS, 2017, 87 (04) : 737 - 750