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Correction

Correction: de Araújo et al. Relationship between Pesticide Standards for Classification of Water Bodies and Ecotoxicity: A Case Study of the Brazilian Directive. Toxics 2022, 10, 767

by
Esmeralda Pereira de Araújo
1,
Eloisa Dutra Caldas
2,* and
Eduardo Cyrino Oliveira-Filho
3,*
1
Faculty of Planaltina—FUP, University of Brasilia—UnB, Federal District, Planaltina 73345-010, Brazil
2
Toxicology Laboratory, Faculty of Health Sciences, University of Brasília—UnB, Federal District, Brasília 70910-900, Brazil
3
Brazilian Agricultural Research Corporation—Embrapa Cerrados, Federal District, Planaltina 73310-970, Brazil
*
Authors to whom correspondence should be addressed.
Toxics 2023, 11(7), 601; https://doi.org/10.3390/toxics11070601
Submission received: 14 June 2023 / Accepted: 21 June 2023 / Published: 11 July 2023
(This article belongs to the Section Environmental Criteria and Standards)
1. 
Error in Table
In the original publication, there was a mistake in “Table 2” as published. The endpoint value for glyphosate is not 12 µg/L, but 12,000 µg/L, hence glyphosate does not represent a risk to the biota and should not be include in the Table. The corrected Table 2 appears below.
2. 
Additional Affiliation(s)
In the published publication, there was an error regarding the affiliation for Eduardo Cyrino Oliveira-Filho. The updated affiliation(s) should correct “ReseArch” to “Research”.
3. 
Text Correction
There was an error in the original publication: “The results indicated that of the 27 pesticides included in the standard directive, 17 have a risk quotient (RQ) higher than the level of concern for at least one ecotoxicological parameter and may not protect the aquatic biota”.
A correction has been made to Abstract, Line 11: “The results indicated that of the 27 pesticides included in the standard directive, 16 have a risk quotient (RQ) higher than the level of concern for at least one ecotoxicological parameter and may not protect the aquatic biota.”
There was an error in the original publication: “Table 2 shows the 17 pesticides that have a RQ higher than the LOC for at least one organism tested, indicating that the biota may not be protected when present in an aquatic environment with concentrations at the legal levels.”
A correction has been made to 3. Results and Discussion, Paragraph 5: “Table 2 shows the 16 pesticides that have an RQ higher than the LOC for at least one organism tested, indicating that the biota may not be protected when present in an aquatic environment with concentrations at the legal levels.”
There was an error in the original publication: “Of the 27 pesticides in the Brazilian directive for the classification of surface freshwater (CONAMA 357/2005), 17 have RQs higher than the LOC for at least one of the tested organisms, indicating that the MVs are not safe for the biota.”
A correction has been made to 4. Conclusions, Paragraph 1: “Of the 27 pesticides in the Brazilian directive for the classification of surface freshwater (CONAMA 357/2005), 16 have RQs higher than the LOC for at least one of the tested organisms, indicating that the MVs are not safe for the biota.”
There was an error in the original publication: “In Brazil, CONAMA directive No. 357, from 17 MArch. 2005, determines the quality parameters, including the establishment of maximum values (MV) for pesticides in surface freshwater classes 1/2 and 3, which are destined for multiple uses (Table S1).”
A correction has been made to 1. Introduction, Paragraph 2: “In Brazil, CONAMA directive No. 357, from 17 March 2005, determined quality parameters, including the establishment of maximum values (MV) for pesticides in surface freshwater classes 1/2 and 3, which are destined for multiple uses (Table S1).”
There was an error in the original publication: “In order to carry out this study, reseArch. was done in the Web of Science, Scopus and Google Scholar databases, using the descriptors “aquatic toxicity”, “chronic” “acute”, “LC50”, “EC50”, “NOEL”, “NOEC” and the name of each pesticide listed in Table 1.”
A correction has been made to 2. Materials and Methods, Paragraph 1: “In order to carry out this study, research was conducted in the Web of Science, Scopus and Google Scholar databases, using the descriptors “aquatic toxicity”, “chronic” “acute”, “LC50”, “EC50”, “NOEL”, “NOEC” and the name of each pesticide listed in Table 1.”
There was an error in the original publication: “Considering the trophic levels, the group of secondary consumers is the one that shows a RQ higher than 1 (Table 2).”
A correction has been made to 3. Results and Discussion, Paragraph 6: “Considering the trophic levels, the group of primary consumers is the one that shows an RQ higher than 1 (Table 2).”
The authors state that the scientific conclusions are unaffected. These corrections were approved by the Academic Editor. The original publication [1] has also been updated.

Reference

  1. de Araújo, E.P.; Caldas, E.D.; Oliveira-Filho, E.C. Relationship between Pesticide Standards for Classification of Water Bodies and Ecotoxicity: A Case Study of the Brazilian Directive. Toxics 2022, 10, 767. [Google Scholar] [CrossRef]
Table 2. Pesticides listed in CONAMA directive 357/05, for which the risk quotient is higher than the level of concern (LOC) for at least one tested organism. LOC = 0.5 for acute risk to aquatic animals; LOC = 1 for chronic risk to aquatic animals and 1 for acute risk to plants [7].
Table 2. Pesticides listed in CONAMA directive 357/05, for which the risk quotient is higher than the level of concern (LOC) for at least one tested organism. LOC = 0.5 for acute risk to aquatic animals; LOC = 1 for chronic risk to aquatic animals and 1 for acute risk to plants [7].
PesticideRisk Quotient Class 1,2/3 (µg/L)Endpoint: Concentration (µg/L)Tested OrganismReference
Alachlor3/-EC50 (72 h): 6.69Raphidocelis subcapitata a[26]
2/-EC50 (96 h): 10Raphidocelis subcapitata a[27]
2/-EC50 (7 d)-biomass: 10Lemna minor a[20]
12.2/-EC50 (<10 d): 1.64Nonvascular plants a[7]
8.7/-EC50 (<10 d): 2.3Vascular plants a[7]
Aldrin-/3NOEC-ratio of ovigerous to non-ovigerous females: 0.01Brachionus calyciflorus b[31]
-/1.8LC50 (96 h): 0.017Pimephales promelas c[21]
Dieldrin5/30LOEC-population growth rate: 0.001Brachionus calyciflorus b[31]
5/30NOEC-ratio of ovigerous to non-ovigerous females: 0.001Brachionus calyciflorus b[31]
-/3LOEC-ratio of ovigerous to non-ovigerous females: 0.01Brachionus calyciflorus b[31]
Atrazine2/2EC50 (<10 d): <1Nonvascular plants a[7]
Carbaryl-/1.2NOEC-resting egg production: 60Brachionus calyciflorus b[37]
-/3.5NOEC-resting egg hatching rate: 20Brachionus calyciflorus b[37]
-/1.2LOEC-resting egg hatching rate: 60Brachionus calyciflorus b[37]
-/41.2EC50 or LC50 (48 or 96 h): 1.7Invertebrates b[7]
-/140NOAEC: 0.5Invertebrates b[7]
-/10.9EC50 (48 h): 6.4Daphnia pulex b[20]
-/12.3LC50 (96 h): 5.7Americamysis bahia b[20]
-/11.7NOAEC: 6Fish c[7]
Chlordane-/2.4LC50 (96 h): 0.127Neocaridina denticulate b[43]
-/1.7NOEC (14 d)-survival: 0.18Ceriodaphnia dubia b[44]
-/1.7NOEC (14 d)- number of offspring per female: 0.18Ceriodaphnia dubia b[44]
-/1.7NOEC (21 d)- number of offspring per female: 0.18Daphnia magna b[44]
-/4.3LC50 (48 h)-trans: 0.07Daphnia b[21]
-/7.5LC50 (96 h)-trans: 0.04Pimephales promelas c[21]
2,4-D-/1LOEC: 29Hyalella meinerti b[48]
-/1NOEC: <29Hyalella meinerti b[48]
1.2/9.3LC50 (48 h): 3.22Daphnia b[21]
1.5/11.6LC50 (96 h): 2.59Pimephales promelas c[21]
Demeton-/1.3EC50 (48 h) d: 10.4Daphnia pulex b[20]
-/1.6LC50 (48 h) d1: 8.62Daphnia b[21]
-/3.2LC50 (96 h) d1: 4.43Pimephales promelas c[21]
-/3.2LC50 (48 h) d2: 4.44Daphnia b[21]
DDT-/1EC50 (48 h) e: 1Bosmina longirostris b[20]
Endosulfan5.6/22NOAEC: 0.01Invertebrates b[7]
0.6/2.2LC50 (96 h): 0.1Fish c[7]
2.4/9.6NOAEC: 0.023Fish c[7]
155.6/611.1LC50 (96 h): 0.00036Chironomus ramosus b[52]
112/440NOEC (28 d): 0.0005Cyprinodon variegatus c[20]
Endrin-/1.1LC50 (48 h): 0.19Daphnia b[21]
2/100LC50 (96 h): 0.002Pimephales promelas c[21]
-/1.7NOEC (21 d): 0.12Cyprinodon variegatus c[20]
Lindane-/2EC50 or LC50 (48 or 96 h): 1Invertebrates b[7]
-/1.2LC50 (96 h): 1.7Fish c[7]
-/0.7LC50 (96 h): 2.9Oncorhynchus mykiss c[20]
Malathion1/1020.4EC50 or LC50 (48 or 96 h): 0.098Invertebrates b[7]
1.7/1666.7NOAEC: 0.06Invertebrates b[7]
-/111.1LC50 (48 h): 0.9Daphnia magna b[57]
-/4.9LC50 (48 h): 20.32Daphnia b[21]
-/142.9EC50 (48 h): 0.7Daphnia magna b[20]
1.7/1666.7NOEC (21 d): 0.06Daphnia magna b[20]
-/66.7LC50 (96 h): 1.5Americamysis bahia b[20]
-/24.4LC50 (96 h): 4.1Fish c[7]
-/11.6NOAEC: 8.6Fish c[7]
3125/3,125,000LC50 (96 h): 0.000032Chironomus ramosus b[52]
-/22.3LC50 (96 h): 4.48Pimephales promelas c[21]
-/5.6LC50 (96 h): 18Oncorhynchus mykiss c[20]
-/1.1NOEC (21 d): 91Oncorhynchus mykiss c[20]
Metolachlor1.3/-EC50 (<10 d): 8Nonvascular Plants a[7]
10/-NOAEC: 1Invertebrates b[7]
Metoxichlor-/0.7LC50 (48 h): 30Daphnia b[21]
-/14.3EC50 or LC50 (48 or 96 h): 1.4Invertebrates b[7]
-/25.6EC50 (48 h): 0.78Daphnia magna b[20]
-/20NOEC (21 d): 1Daphnia magna b[20]
-/1.3LC50 (96 h): 15Fish c[7]
Parathion-/92.1LC50 (48 h): 0.38Daphnia magna b[57]
-/46.7LC50 (48 h): 0.75Daphnia b[21]
-/14EC50 (48 h): 2.5Daphnia magna b[20]
-/350NOEC (21 d): 0.1Daphnia magna b[20]
-/318.2LC50 (96 h): 0.11Americamysis bahia b[20]
d: day; h: hour; LC50: lethal concentration; EC50: effective concentration; LOEC: lowest observed effect concentration; NOAEC: no observed adverse effect concentration; NOEC: no observed effect concentration; LOEC: lowest observed effect concentrations. a Producer organism; b Primary consumer; c Secondary consumer; d Demeton; d1 Isomer S; d2 Isomer O; e Degradation product of DDE. All ecotoxicological studies were conducted in a laboratory setting, except for Refs. [7,20,21], where this information was not available.
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MDPI and ACS Style

de Araújo, E.P.; Caldas, E.D.; Oliveira-Filho, E.C. Correction: de Araújo et al. Relationship between Pesticide Standards for Classification of Water Bodies and Ecotoxicity: A Case Study of the Brazilian Directive. Toxics 2022, 10, 767. Toxics 2023, 11, 601. https://doi.org/10.3390/toxics11070601

AMA Style

de Araújo EP, Caldas ED, Oliveira-Filho EC. Correction: de Araújo et al. Relationship between Pesticide Standards for Classification of Water Bodies and Ecotoxicity: A Case Study of the Brazilian Directive. Toxics 2022, 10, 767. Toxics. 2023; 11(7):601. https://doi.org/10.3390/toxics11070601

Chicago/Turabian Style

de Araújo, Esmeralda Pereira, Eloisa Dutra Caldas, and Eduardo Cyrino Oliveira-Filho. 2023. "Correction: de Araújo et al. Relationship between Pesticide Standards for Classification of Water Bodies and Ecotoxicity: A Case Study of the Brazilian Directive. Toxics 2022, 10, 767" Toxics 11, no. 7: 601. https://doi.org/10.3390/toxics11070601

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