about
Use of an environmental specimen bank for evaluating the impact of the Prestige oil spill on the levels of trace elements in two species of Fucus on the coast of Galicia (NW Spain).Design of an aquatic biomonitoring network for an environmental specimen bank.Use of macroalgae stored in an Environmental Specimen Bank for application of some European Framework Directives.Temporal trends in mercury concentrations in raptor flight feathers stored in an environmental specimen bank in Galicia (NW Spain) between 2000 and 2013.The analysis of pollutant profiles by means of compositional analysis. An application to PCDD/F data.Substituting missing data in compositional analysis.Long-term (∼57 ka) controls on mercury accumulation in the Southern Hemisphere reconstructed using a peat record from Pinheiro mire (Minas Gerais, Brazil).Best options for the exposure of traditional and innovative moss bags: A systematic evaluation in three European countries.Moss bag biomonitoring: a methodological review.A critical review of protocols for moss biomonitoring of atmospheric deposition: sampling and sample preparation.Sphagnum palustre clone vs native Pseudoscleropodium purum: A first trial in the field to validate the future of the moss bag technique.Quantification of the overall measurement uncertainty associated with the passive moss biomonitoring technique: Sample collection and processing.Do mosses exist outside of Europe? A biomonitoring reflection.Trace element concentrations in the moss Hypnum cupressiforme growing in a presumably unpolluted area.Testing the use of juvenile Salmo trutta L. as biomonitors of heavy metal pollution in freshwater.Study of the air quality in industrial areas of Santa Cruz de Tenerife (Spain) by active biomonitoring with Pseudoscleropodium purum.Evaluation of the use of moss transplants (Pseudoscleropodium purum) for biomonitoring different forms of air pollutant nitrogen compounds.The effect of sampling design on extensive bryomonitoring surveys of air pollution.On the use of epigaeic mosses to biomonitor atmospheric deposition of nitrogen.Country-specific correlations across Europe between modelled atmospheric cadmium and lead deposition and concentrations in mosses.Assessing the effects of heavy metal contamination on the proteome of the moss Pseudoscleropodium purum cross-transplanted between different areas.Assessing the tolerance of the terrestrial moss Pseudoscleropodium purum to high levels of atmospheric heavy metals: a reciprocal transplant study.Cellular location of K, Na, Cd and Zn in the moss Pseudoscleropodium purum in an extensive survey.Evergreen or deciduous trees for capturing PAHs from ambient air? A case study.Genetic structuring of the moss Pseudoscleropodium purum sampled at different distances from a pollution source.PAH detection in Quercus robur leaves and Pinus pinaster needles: A fast method for biomonitoring purpose.Study of temporal trends in mercury concentrations in the primary flight feathers of Strix aluco.Using devitalized moss for active biomonitoring of water pollution.Matrix solid phase dispersion method for determination of polycyclic aromatic hydrocarbons in moss.Nitrogen concentrations in mosses indicate the spatial distribution of atmospheric nitrogen deposition in Europe.Sampling optimization, at site scale, in contamination monitoring with moss, pine and oak.Active biomonitoring with the moss Pseudoscleropodium purum: Comparison between different types of transplants and bulk depositionRelationship between trace metal concentrations in the terrestrial moss Pseudoscleropodium purum and in bulk depositionUse of a moss biomonitoring method to compile emission inventories for small-scale industriesTesting differences in methods of preparing moss samples. Effect of washing on Pseudoscleropodium purumBiomonitoring coastal environments with transplanted macroalgae: A methodological reviewApplication of macroalgae analysis to assess the natural variability in selected pollution concentrations (N and Hg), and to detect sources of it in coastal environmentsUse of native and transplanted mosses as complementary techniques for biomonitoring mercury around an industrial facilityActive biomonitoring of element uptake with terrestrial mosses: a comparison of bulk and dry depositionTesting differences in methods of preparing moss samples
P50
Q33449926-A7D2662D-C71F-4BEE-A9E6-DEAA1253883EQ33450524-6AA84886-FA5E-4167-8015-45FD9B5D3D0EQ33452031-4AEB4700-4CD4-457B-8E4F-63F78B7B002FQ33458841-4D8D96AF-3A73-4AF1-8DE5-4DF48BB1BFE4Q33510845-3011D74B-3666-4529-AE41-450F5A93E1D0Q33924826-4D6EECB8-580F-46A3-BF53-1889B94A0F32Q35534891-56D48E71-8972-4A05-966A-515A5BB98BDBQ35997565-D9373355-9932-47C2-9108-FDD553AC1FF0Q38021248-B91DC54B-3F35-4D5E-AD25-5051C9DFBE32Q38366019-631A6E69-7564-47F1-B759-5E8034683B22Q38750346-C04A6FC4-DA4A-4200-826B-EAC5B290FB83Q38954168-770BE3FE-3402-44E8-864B-C29120A11F84Q39209483-307F123A-A6F2-4C25-A0D9-849142F897BCQ39704889-839EF309-5DB8-48F2-B20A-CAA8566AF50CQ39778485-000FC2B3-021E-4A65-B8DB-27F39F8F2BCAQ39949850-B14FB577-A66E-43CA-AA80-72C8AD50EE7FQ40363790-C633065B-E174-4C26-AA31-7D589611B638Q40457585-4C95221E-CFE7-4723-9529-1DD0E116889AQ44356621-C0CC1863-8C40-44F2-9CDB-D8160A414CDAQ44930866-28AB665F-FC79-4D11-90E9-C426812C8C34Q45040371-9D035E03-A885-4FA4-99A9-AC575ACD511EQ45753043-17DDAE25-6CCC-44DB-A81B-52233C10FAFFQ45831521-872C8C6E-F3E0-46AB-9190-27E2834C2BB1Q46447889-8BF71C23-54A7-4B0D-9EE0-0077295D8DD1Q46463230-CB0A8110-579F-4A6D-A14C-1AC82989E096Q46555688-4DE31263-33F6-42C2-B3F2-2359BE1472B7Q46556620-9636731C-3636-4A79-BB40-BCABEFAC8462Q46605906-E80A647F-5EEC-40C3-BEA0-10DFDAEE4030Q46710543-E7013AE5-1692-4FF6-AD97-5188BDD9DA8FQ51597406-2ED43190-755D-4635-AF7C-3DB68F739B1DQ53761798-495AED64-D85F-420F-92BB-069D339CAD27Q57108174-1A9288D8-141A-461A-90EE-AF324B5D4467Q57108488-3CB6BD64-EF14-4DB5-966E-C465E22CDA9AQ57109673-666D1306-4FB8-4BD1-AB85-CEF7058F47A5Q57119835-3C4A921E-0DA6-41A0-946B-4E8D9B2ECE84Q57299132-C60B93DB-C743-42AF-974A-47E34D8D982DQ57453564-A9888AEC-153A-4AEF-A1BA-DADB0FC6F64CQ74024310-B1A64653-9F89-4309-89E0-DD1B41D128ECQ79919401-AC29A583-1F3E-4A1E-9457-4382606CC413Q80343219-F7E2534E-C1BA-42D0-BA2A-D96F436B35EC
P50
description
researcher ORCID ID = 0000-0001-8310-2907
@en
wetenschapper
@nl
name
Jesús R Aboal
@ast
Jesús R Aboal
@en
Jesús R Aboal
@es
Jesús R Aboal
@nl
type
label
Jesús R Aboal
@ast
Jesús R Aboal
@en
Jesús R Aboal
@es
Jesús R Aboal
@nl
prefLabel
Jesús R Aboal
@ast
Jesús R Aboal
@en
Jesús R Aboal
@es
Jesús R Aboal
@nl
P1153
6603569848
P21
P31
P496
0000-0001-8310-2907