Dissipation and cross-contamination of miticides in apiculture. Evaluation by APIStrip-based sampling

被引:10
|
作者
Murcia-Morales, Maria [1 ]
Jose Diaz-Galiano, Francisco [1 ]
Guiterrez-Tirado, Inmaculada [2 ]
Manuel Flores, Jose [2 ]
Van der Steen, Jozef J. M. [3 ]
Fernandez-Alba, Amadeo R. [1 ]
机构
[1] Univ Almeria, Chem & Phys Dept, Agrifood Campus Int Excellence CeiA3, Almeria 04120, Spain
[2] Univ Cordoba, Dept Zool, Campus Rabanales, Cordoba 14071, Spain
[3] Alveus AB Consultancy, Oisterwijk, Netherlands
关键词
Miticides; Apiculture; APIStrip; Dissipation; Cross-contamination; Beehives; MELLIFERA L; HONEY-BEES; RESIDUES; FLUVALINATE; PESTICIDES; ACARICIDES; TOXICITY; DECLINES;
D O I
10.1016/j.chemosphere.2021.130783
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
The active substances coumaphos, tau-fluvalinate and amitraz are among the most commonly employed synthetic miticides to control varroa infestations in apiculture. These compounds can persist inside the beehive matrices and can be detected long time after their application. The present study describes the application of a new passive sampling methodology to assess the dissipation of these miticides as well as the cross-contamination in neighboring beehives. The APIStrips are a recently developed sampling device based on the sorbent Tenax, which shows a remarkable versatility for the sorption of molecules onto its surface. This avoids the need of actively sampling apicultural matrices such as living bees, wax or reserves (honey and pollen), therefore allowing to obtain representative information of the contamination in the beehive environment in one single matrix. The results show that the amitraz-based treatments have the fastest dissipation rate (half-life of 11-14 days), whereas tau-fluvalinate and coumaphos remain inside the beehive environment for longer time periods, with a half-life up to 39 days. In the present study, tau-fluvalinate originated an intense cross-contamination, as opposed to coumaphos and amitraz. This study also demonstrates the contribution of drifting forager bees in the pesticide cross-contamination phenomena. Moreover, the sampling of adult living bees has been compared to the APIStrip-based sampling, and the experimental results show that the latter is more effective and consistent than traditional active sampling strategies. The active substances included in this study do not migrate to the honey from the treated colonies in significant amounts.
引用
收藏
页数:9
相关论文
共 50 条
  • [21] Droplet Transportation in MEDA-Based Biochips: An Enhanced Technique for Intelligent Cross-Contamination Avoidance
    Howladar, Pampa
    Roy, Pranab
    Rahaman, Hafizur
    IEEE TRANSACTIONS ON VERY LARGE SCALE INTEGRATION (VLSI) SYSTEMS, 2021, 29 (07) : 1451 - 1464
  • [22] Metal-Organic Framework-Based Antimicrobial Touch Surfaces to Prevent Cross-Contamination
    Fonseca, Javier
    Cano-Sarabia, Mary
    Cortes, Pilar
    Saldo, Jordi
    Montpeyo, David
    Lorenzo, Julia
    Llagostera, Montserrat
    Imaz, Inhar
    Maspoch, Daniel
    ADVANCED MATERIALS, 2024,
  • [23] AN APPROACH TO REDUCTION OF SALMONELLA INFECTION IN BROILER CHICKEN FLOCKS THROUGH INTENSIVE SAMPLING AND IDENTIFICATION OF CROSS-CONTAMINATION HAZARDS IN COMMERCIAL HATCHERIES
    DAVIES, RH
    WRAY, C
    INTERNATIONAL JOURNAL OF FOOD MICROBIOLOGY, 1994, 24 (1-2) : 147 - 160
  • [24] Cross-reference EWOD driving scheme and cross-contamination aware net placement technique for MEDA based DMFBs
    1600, Institute of Electrical and Electronics Engineers Inc., United States
  • [25] An evaluation of central nervous system cross-contamination due to carcass splitting in commercial beef-packing plants
    Bowling, M. B.
    Yemm, R. S.
    Belk, K. E.
    Sofos, J. N.
    Smith, G. C.
    Scanga, J. A.
    JOURNAL OF FOOD PROTECTION, 2008, 71 (01) : 83 - 92
  • [26] Evaluation of cleaning methods for change-over after the processing of cell products to avoid cross-contamination risk
    Mizuno, Mitsuru
    Yori, Kouichirou
    Takeuchi, Toshikazu
    Yamamoto, Takaaki
    Ishikawa, Natsumi
    Kobayashi, Megumi
    Nishio, Miwako
    Sekiya, Ichiro
    REGENERATIVE THERAPY, 2024, 26 : 489 - 495
  • [27] Evaluation of Cross-contamination of Nylon Bags with Heavy-loaded Gasoline Fire Debris and with Automotive Paint Thinner
    Belchior, Filipa
    Andrews, Stephen P.
    JOURNAL OF FORENSIC SCIENCES, 2016, 61 (06) : 1622 - 1631
  • [28] Evaluation of Low-Colony-Number Counts of Mycobacterium tuberculosis on Solid Media as a Microbiological Marker of Cross-Contamination
    Ribeiro, F. K. C.
    Lemos, E. M.
    Hadad, D. J.
    Leao, S. C.
    Viana-Niero, C.
    Dietze, R.
    Johnson, J. L.
    Eisenach, K. D.
    Palaci, M.
    JOURNAL OF CLINICAL MICROBIOLOGY, 2009, 47 (06) : 1950 - 1952
  • [29] Content Validation and Semantic Evaluation of a Check-List Elaborated for the Prevention of Gluten Cross-Contamination in Food Services
    Farage, Priscila
    Zandonadi, Renata Puppin
    Ginani, Veronica Cortez
    Gandolfi, Lenora
    Pratesi, Riccardo
    de Medeiros Nobrega, Yanna Karla
    NUTRIENTS, 2017, 9 (01)
  • [30] EXPERIMENTAL AND THEORETICAL INVESTIGATIONS INTO THE ORIGIN OF CROSS-CONTAMINATION EFFECTS OBSERVED IN A QUADRUPOLE-BASED SIMS INSTRUMENT
    WITTMAACK, K
    APPLIED PHYSICS A-MATERIALS SCIENCE & PROCESSING, 1985, 38 (04): : 235 - 252