Source: https://www.federalregister.gov/documents/2013/11/20/2013-27680/fenpropathrin-pesticide-tolerances
Timestamp: 2018-03-23 21:40:50
Document Index: 350117224

Matched Legal Cases: ['art 178', 'art 180', 'art 178', 'art 178', 'art 2', '§\u2009180']

A Rule by the Environmental Protection Agency on 11/20/2013
This regulation is effective November 20, 2013. Objections and requests for hearings must be received on or before January 21, 2014, and must be filed in accordance with the instructions provided in 40 CFR part 178 (see also Unit I.C. of the SUPPLEMENTARY INFORMATION).
78 FR 69562
69562-69569 (8 pages)
EPA-HQ-OPP-2012-0899
FRL-9902-44
2013-27680
Tier 1 Drinking Water Exposure Assessment for the Section 3...
Fenpropathrin. Summary of Analytical Chemistry and Residue Data
Fenpropathrin. Dietary Exposure and Risk Assessment
Fenpropathrin. Human Health Risk Assessment for the Proposed...
Notice of Filing for Fenpropathrin on Barley, Fruiting...
https://www.federalregister.gov/d/2013-27680 https://www.federalregister.gov/d/2013-27680
This regulation establishes tolerances for residues of fenpropathrin in or on multiple commodities which are identified and discussed later in this document. This regulation additionally removes several permanent tolerances as they will be superseded by the tolerances established by this document. Interregional Research Project Number 4 (IR-4) requested these tolerances under the Federal Food, Drug, and Cosmetic Act (FFDCA).
The docket for this action, identified by docket identification (ID) Start Printed Page 69563number EPA-HQ-OPP-2012-0899, is available at http://www.regulations.gov or at the Office of Pesticide Programs Regulatory Public Docket (OPP Docket) in the Environmental Protection Agency Docket Center (EPA/DC), EPA West Bldg., Rm. 3334, 1301 Constitution Ave. NW., Washington, DC 20460-0001. The Public Reading Room is open from 8:30 a.m. to 4:30 p.m., Monday through Friday, excluding legal holidays. The telephone number for the Public Reading Room is (202) 566-1744, and the telephone number for the OPP Docket is (703) 305-5805. Please review the visitor instructions and additional information about the docket available at http://www.epa.gov/​dockets.
You may access a frequently updated electronic version of EPA's tolerance regulations at 40 CFR part 180 through the Government Printing Office's e-CFR site at http://www.ecfr.gov/​cgi-bin/​text-idx?​&​c=​ecfr&​tpl=​/​ecfrbrowse/​Title40/​40tab_​02.tpl. To access the OPPTS test guidelines referenced in this document electronically, please go to http://www.epa.gov/​ocspp and select “Test Methods and Guidelines.”
Under FFDCA section 408(g), 21 U.S.C. 346a, any person may file an objection to any aspect of this regulation and may also request a hearing on those objections. You must file your objection or request a hearing on this regulation in accordance with the instructions provided in 40 CFR part 178. To ensure proper receipt by EPA, you must identify docket ID number EPA-HQ-OPP-2012-0899 in the subject line on the first page of your submission. All objections and requests for a hearing must be in writing, and must be received by the Hearing Clerk on or before January 21, 2014. Addresses for mail and hand delivery of objections and hearing requests are provided in 40 CFR 178.25(b).
In addition to filing an objection or hearing request with the Hearing Clerk as described in 40 CFR part 178, please submit a copy of the filing (excluding any Confidential Business Information (CBI)) for inclusion in the public docket. Information not marked confidential pursuant to 40 CFR part 2 may be disclosed publicly by EPA without prior notice. Submit the non-CBI copy of your objection or hearing request, identified by docket ID number EPA-HQ-OPP-2012-0899, by one of the following methods:
In the Federal Register of February 15, 2013 (78 FR 11126) (FRL-9378-4), EPA issued a document pursuant to FFDCA section 408(d)(3), 21 U.S.C. 346a(d)(3), announcing the filing of a pesticide petition (PP 2E8107) by IR-4,500 College Rd. East, Suite 201W., Princeton, NJ 08540. The petition requested that 40 CFR 180.466 be amended by establishing tolerances for residues of the insecticide fenpropathrin, alpha-cyano-3-phenoxybenzyl 2,2,3,3-tetramethylcyclopropanecarboxylate, in or on barley, grain at 0.04 parts per million (ppm); barley, hay at 3.0 ppm; barley, straw at 2.0 ppm; berry, low-growing, subgroup 13-07G at 2.0 ppm; bushberry subgroup 13-07B at 3.0 ppm; fruit, citrus, group 10-10 at 2.0 ppm; fruit, pome, group 11-10 at 5.0 ppm; fruit, small vine climbing, except fuzzy kiwifruit, subgroup 13-07F at 5.0 ppm; and vegetable, fruiting, group 8-10 at 1.0 ppm. The petition additionally requested the removal of the following established tolerances in 40 CFR 180.466 for fenpropathrin as they will be superseded by new tolerances, if established: Fruit, citrus, group 10; fruit, pome, group 11; bushberry subgroup 13B; grape; juneberry; salal; strawberry; and vegetable, fruiting, group 8.
That document referenced a summary of the petition prepared on behalf of IR-4 by Valent USA Corporation, the registrant, which is available in the docket, http://www.regulations.gov. There were no comments received in response to the notice of filing.
Based upon review of the data supporting the petition, EPA has determined that the established tolerance for lingonberry will also be removed. The reason for this change is explained in Unit IV.C
Consistent with FFDCA section 408(b)(2)(D), and the factors specified in FFDCA section 408(b)(2)(D), EPA has reviewed the available scientific data and other relevant information in support of this action. EPA has sufficient data to assess the hazards of and to make a determination on aggregate exposure for fenpropathrin including exposure resulting from the Start Printed Page 69564tolerances established by this action. EPA's assessment of exposures and risks associated with fenpropathrin follows.
Fenpropathrin is a member of the pyrethroid class of insecticides. Pyrethroids have historically been classified into two groups, Type I and Type II, based on chemical structure and toxicological effects. Type I pyrethroids, which lack an alpha-cyano moiety, induce in rats a syndrome consisting of aggressive sparring, altered sensitivity to external stimuli, hyperthermia, and fine tremor progressing to whole-body tremor and prostration (T-syndrome). Type II pyrethroids, which contain an alpha-cyano moiety, produce in rats a syndrome that includes pawing, burrowing, salivation, hypothermia, and coarse tremors leading to choreoathetosis (CS-syndrome). Fenpropathrin is a mixed-type pyrethroid because the biochemical responses and resulting clinical signs of neurotoxicity are intermediate between those of Type I and Type II pyrethroids. The adverse outcome pathway shared by pyrethroids involves the ability to interact with voltage-gated sodium channels in the central and peripheral nervous systems, leading to changes in neuron firing and, ultimately, neurotoxicity.
Fenpropathrin exhibits high acute toxicity via the oral and dermal routes but low toxicity via the inhalation route of exposure. Fenpropathrin is a mild eye irritant, but does not cause dermal irritation or skin sensitization. Toxicological effects characteristic of pyrethroids were seen in most of the experimental toxicology studies including the acute, subchronic, and developmental neurotoxicity studies, subchronic studies in the rat and dog, the chronic carcinogenicity study in the rat, the developmental studies in the rat and rabbit, and in the 3-generation reproduction study in rats. Tremors were the most common indication of neurotoxicity; however, ataxia, increased sensitivity (e.g., heightened response) to external stimuli, convulsions, and increased auditory startle response were also observed.
In developmental toxicity studies in rats and rabbits, maternal toxicity included neurological effects such as ataxia, sensitivity to external stimuli, tremors in the rat, and flicking of forepaws in the rabbit. Developmental effects were limited to incomplete or asymmetrical ossification of sternebrae at the maternally toxic dose in the rat. There were no developmental effects in the rabbit. In a 3-generation reproduction study in the rat, maternal and offspring effects were observed at the mid- and high-dose. At the high dose, maternal effects included increased deaths and clinical signs of toxicity (tremors, muscle twitches, and increased sensitivity) during lactation. Pup deaths were noted at this level. At the mid-dose, minimal signs of treatment-related effects were observed for both adults and pups, reducing concern for quantitative or qualitative sensitivity. There were no indications of immunotoxicity in any of the guideline studies, including the immunotoxicity study in rats.
There was no evidence of carcinogenicity in either the rat or mouse long-term dietary studies, nor was there any mutagenic activity in bacteria or cultured mammalian cells. Fenpropathrin has been classified as “not likely to be carcinogenic to humans.” Specific information on the studies received and the nature of the adverse effects caused by fenpropathrin as well as the toxicological points of departure (POD) derived from the BMDL (statistical lower confidence limit on the dose at the benchmark dose) from the toxicity studies can be found at http://www.regulations.gov in document “Fenpropathrin. Human Health Risk Assessment for the Proposed Section 3 Registration on Barley and the Request to Update Several Existing Crop Groups with Revised Crop Grouping Definitions” starting at p. 12, in docket ID number EPA-HQ-OPP-2012-0899.
Once a pesticide's toxicological profile is determined, EPA identifies toxicological POD and levels of concern to use in evaluating the risk posed by human exposure to the pesticide. For hazards that have a threshold below which there is no appreciable risk, the toxicological POD is used as the basis for derivation of reference values for risk assessment. For fenopropathrin, the PODs are developed based on a careful analysis of the doses in each toxicological study; a benchmark dose analysis was conducted to derive the BMDL. Uncertainty/safety factors are used in conjunction with the POD to calculate a safe exposure level—generally referred to as a population-adjusted dose (PAD) or a reference dose (RfD)—and a safe margin of exposure (MOE). For non-threshold risks, the Agency assumes that any amount of exposure will lead to some degree of risk. Thus, the Agency estimates risk in terms of the probability of an occurrence of the adverse effect expected in a lifetime. For more information on the general principles EPA uses in risk characterization and a complete description of the risk assessment process, see http://www.epa.gov/​pesticides/​factsheets/​riskassess.htm.
A summary of the toxicological endpoints for fenpropathrin used for human risk assessment is discussed in Unit III.B. of the final rule published in the Federal Register of November 28, 2012 (77 FR 70902) (FRL-9366-1).
1. Dietary exposure from food and feed uses. In evaluating dietary exposure to fenpropathrin, EPA considered exposure under the petitioned-for tolerances as well as all existing fenpropathrin tolerances in 40 CFR 180.466. EPA assessed dietary exposures from fenpropathrin in food as follows:
i. Acute exposure. Quantitative acute dietary exposure and risk assessments are performed for a food-use pesticide, if a toxicological study has indicated the possibility of an effect of concern occurring as a result of a 1-day or single exposure. Such effects were identified for fenpropathrin. In estimating acute dietary exposure, EPA used food consumption information from the United States Department of Agriculture (USDA) 2003-2008 National Health and Nutrition Examination Survey, What We Eat in America, (NHANES/WWEIA). As to residue levels in food, EPA utilized percent crop treated (PCT) estimates and tolerance level residues, distributions of field trial values, and distributions of Pesticide Data Program (PDP) monitoring data.
Residue distributions were used for the commodities that made the most significant contributions to the risk estimates (i.e., the “risk drivers”). Monitoring data were used for risk drivers when they were available; however, field trial data were used for the remaining risk drivers. Distributions of monitoring data values were used for the following risk drivers: Apple juice, apples, blackberries, blueberries, broccoli, cauliflower, Chinese mustard cabbage, grape juice, grapes, huckleberries, oranges, pears, raspberries, squash, strawberries, tangerines, and watermelon. Monitoring Start Printed Page 69565data from the years 2007 through 2010, inclusive, were used. Broccoli PDP data were translated to Chinese mustard cabbage and cauliflower. Orange PDP data were translated to tangerines. Blueberry PDP data were translated to blackberries, huckleberries, and raspberries. Finally, strawberry PDP data were translated to cranberries. Distributions of field trial data were used for apricot juice, apricots, Brussels sprouts, cabbage, cherries, cherry juice, Chinese napa cabbage, cucumbers, grapefruit, grapefruit juice, guava, mango, mango juice, nectarines, olives, papaya, papaya juice, passion fruit, passion fruit juice, peach juice, peaches, plums, prune plum juice, prune plums, tomato juice, and tomatoes. For most processed commodities, DEEM (Dietary Exposure Evaluation Model) default processing factors were used for those commodities for which they were available. In some cases, empirical processing factors were used.
ii. Chronic exposure. Based on the data summarized in Unit III.A., there is no increase in hazard from repeated exposures to fenpropathrin; the acute dietary exposure assessment is protective for chronic dietary exposures because acute exposure levels are higher than chronic exposure levels. Accordingly, a dietary exposure assessment for the purpose of assessing chronic dietary risk was not conducted.
iii. Cancer. Based on the data summarized in Unit III.A., EPA has concluded that fenpropathrin does not pose a cancer risk to humans. Therefore, a dietary exposure assessment for the purpose of assessing cancer risk is unnecessary.
Section 408(b)(2)(F) of FFDCA states that the Agency may use data on the actual percent of food treated for assessing dietary risk only if:
The Agency estimated the PCT for existing uses as follows: Apples, 15%; apricots 2.5%; blueberries, 2.5%; broccoli, 2.5%; Brussels sprouts, 10%; cabbage, 2.5%; cauliflower, 2.5%; cherries, 5%; cotton, 2.5%; cucumbers, 2.5%; grapefruit, 35%; grapes, 10%; nectarines, 2.5%; oranges, 35%; peaches, 2.5%; pears, 10%; plums, 2.5%; prune plums, 2.5%; squash, 2.5%; strawberries, 50%; tangerines, 15%; tomatoes, 10%; and watermelons, 2.5%.
Based on the First Index Reservoir Screening Tool (FIRST), Screening Concentration in Ground Water (SCI-GROW) models, the estimated drinking water concentrations (EDWCs) of fenpropathrin for acute exposures are estimated to be 10.3 parts per billion (ppb) for surface water and 0.005 ppb for ground water.
3. From non-dietary exposure. The term “residential exposure” is used in this document to refer to non-occupational, non-dietary exposure (e.g., for lawn and garden pest control, indoor pest control, termiticides, and flea and tick control on pets). Fenpropathrin is not registered for any specific use patterns that would result in residential exposure.
4. Cumulative effects from substances with a common mechanism of toxicity. Section 408(b)(2)(D)(v) of FFDCA requires that, when considering whether to establish, modify, or revoke a tolerance, the Agency consider “available information” concerning the cumulative effects of a particular Start Printed Page 69566pesticide's residues and “other substances that have a common mechanism of toxicity.”
The Agency is required to consider the cumulative risks of chemicals sharing a common mechanism of toxicity. The Agency has determined that the pyrethroids and pyrethrins, including fenpropathrin, share a common mechanism of toxicity. The members of this group share the ability to interact with voltage-gated sodium channels, ultimately leading to neurotoxicity. The cumulative risk assessment for the pyrethroids/pyrethrins was published in the Federal Register of November 9, 2011 (76 FR 69726) (FRL 8888-9), and is available at http://www.regulations.gov in docket ID number EPA-HQ-OPP-2011-0746. Further information about the determination that pyrethroids and pyrethrins share a common mechanism of toxicity may be found in document ID number EPA-HQ-OPP-2008-0489-0006.
Fenpropathrin was included in the cumulative risk assessment for pyrethrins and pyrethroids. The proposed new uses of fenpropathrin will not significantly impact the cumulative assessment because, in the cumulative assessment, residential exposure was the greatest contributor to the total exposure. As there are no new residential uses for the fenpropathrin, the proposed new uses will have no impact on the residential component of the cumulative risk estimates.
Dietary exposures make a minor contribution to total pyrethroid exposure. The dietary exposure assessment performed in support of the pyrethroid cumulative was much more highly refined than that performed for the single chemical. The dietary exposure assessment for the single chemical included conservative assumptions, using field trial data for many commodities, including the proposed new uses with the assumption of 100 PCT, and the most sensitive apical endpoint in the fenpropathrin hazard database was selected to derive the POD. Additionally, the POD selected for fenpropathrin is specific to the fenpropathrin, whereas the POD selected for the cumulative assessment was based on common mechanism of action data that are appropriate for all 20 pyrethroids included in the cumulative assessment.
2. Prenatal and postnatal sensitivity. The fenpropathrin toxicity database includes developmental toxicity studies in the rat and rabbit, a 3-generation reproduction study in the rat, and a developmental neurotoxicity (DNT) study in rats. There was no evidence of increased qualitative or quantitative susceptibility noted in any of these studies. This lack of susceptibility is consistent with the results of the guideline pre- and postnatal testing for other pyrethroid pesticides.
High-dose LD50 studies (studies assessing what dose results in lethality to 50% of the tested population) in the scientific literature indicate that pyrethroids can result in increased quantitative sensitivity in the young, specifically in the form of neurotoxicity. Examination of pharmacokinetic and pharmacodynamic data indicates that the sensitivity observed at high doses is related to pyrethroid age-dependent pharmacokinetics—the activity of enzymes associated with the metabolism of pyrethroids. With otherwise equivalent administered doses for adults and juveniles, predictive pharmacokinetic models indicate that the differential adult-juvenile pharmacokinetics will result in a 3X greater dose at the target organ in juveniles compared to adults. No evidence of increased quantitative or qualitative susceptibility was seen in the pyrethroid scientific literature related to pharmacodynamics (the effect of pyrethroids at the target tissue) with regard to differences between juveniles and adults. Specifically, there are in vitro pharmacodynamic data and in vivo data indicating similar responses between adult and juvenile rats at low doses and data indicating that the rat is a conservative model compared to the human based on species-specific pharmacodynamics of homologous sodium channel isoforms in rats and humans.
3. Conclusion. EPA is reducing the FQPA SF to 3X for infants and children less than 6 years of age. For the general population, including children greater than 6 years of age, EPA is reducing the FQPA SF to 1X. The decisions regarding the FQPA SFs being used are based on the following considerations:
i. While the database is considered to be complete with respect to the guideline toxicity studies for fenpropathrin, EPA lacks additional data to fully characterize the potential for juvenile sensitivity to neurotoxic effects of pyrethroids. In light of the literature studies indicating a possibility of increased sensitivity in juvenile rats at high doses, EPA identified a need, and requested proposals for, additional non-guideline studies to evaluate the potential for sensitivity in juvenile rats. A group of pyrethroid registrants is currently conducting those studies. Pending the results of those studies, however, the available toxicity studies for fenpropathrin can be used to characterize toxic effects including potential developmental and reproductive toxicity, immunotoxicity, and neurotoxicity. Acceptable developmental toxicity studies in rats and rabbits, reproduction studies in rats, neurotoxicity studies (acute, subchronic, and developmental) in rats, and immunotoxicity studies in rats are available. In addition, a route-specific dermal toxicity study is available, and the inhalation study has been waived.
ii. After reviewing the extensive body of data and peer-reviewed literature on pyrethroids, the Agency has reached a number of conclusions regarding fetal and juvenile sensitivity for pyrethroids, including the following:
Based on an evaluation of over 70 guideline toxicity studies for 24 pyrethroids submitted to the Agency, including prenatal developmental toxicity studies in rats and rabbits, and pre- and postnatal multi-generation reproduction toxicity studies and DNTs in rats in support of pyrethroid registrations, there is no evidence that pyrethroids directly impact developing fetuses. None of the studies show any indications of fetal toxicity at doses that do not cause maternal toxicity.
Increased susceptibility was seen in offspring animals in the DNT study with the pyrethroid zeta-cypermethrin (decreased pup body weights) and DNT and reproduction studies with another pyrethroid beta-cyfluthrin (decreased body weights and tremors). However, the reductions in body weight and the other non-specific effects occur at Start Printed Page 69567higher doses than neurotoxicity, the effect of concern for pyrethroids. The available developmental and reproduction guideline studies in rats with zeta-cypermethrin did not show increased sensitivity in the young to neurotoxic effects. Overall, findings of increased sensitivity in juvenile animals in pyrethroid studies are rare. Therefore, the residual concern for the postnatal effects is reduced.
High-dose LD50 studies (studies assessing what dose results in lethality to 50% of the tested population) in the scientific literature indicate that pyrethroids can result in increased quantitative sensitivity to juvenile animals. Examination of pharmacokinetic and pharmacodynamic data indicates that the sensitivity observed at high doses is related to pyrethroid age-dependent pharmacokinetics—the activity of enzymes associated with the metabolism of pyrethroids. Furthermore, a rat physiologically-based pharmacokinetic (PBPK) model predicts a 3-fold increase of pyrethroid concentration in juvenile brain compared to adults at high doses.
Taking all of this information into account, EPA has reduced the FQPA SF for women of child-bearing age because there is no evidence in the over 70 guideline toxicity studies submitted to the Agency that pyrethroids directly impact developing fetuses. Additionally, none of the studies show any indications of fetal toxicity at doses that do not cause maternal toxicity. Because there remains some uncertainty as to juvenile sensitivity due to the findings in the high-dose LD50 studies, EPA is retaining a 3X FQPA SF for infants and children less than 6 years of age. By age 6, the metabolic system is expected to be at or near adult levels thus reducing concerns for potential age-dependant sensitivity related to pharmacokinetics; therefore for children over 6, 1X is appropriate. Although EPA is seeking additional data to further characterize the potential neurotoxicity for pyrethroids, EPA has reliable data that show that reducing the FQPA SF to 3X will protect the safety of infants and children less than 6 years old. These data include:
a. Data from developmental, reproductive, and DNT guideline studies with fenpropathrin that show no sensitivity.
b. Data showing that the potential sensitivity at high doses is likely due to pharmacokinetics.
c. A rat PBPK model predicting a 3-fold increase of pyrethroid concentration in juvenile brain compared to adults at high doses due to age-dependent pharmacokinetics.
d. Data indicating that the rat is a conservative model compared to the human based on species-specific pharmacodynamics of homologous sodium channel isoforms.
For several reasons, EPA concludes these data show that a 3X factor is protective of the safety of infants and children less than 6 years of age. First, it is likely that the extensive guideline studies with pyrethroids, which indicate that increased sensitivity in juvenile animals in pyrethroid studies is rare, better characterize the potential sensitivity of juvenile animals than the LD50 studies. The high doses that produced juvenile sensitivity in the literature studies are well above normal dietary or residential exposure levels of pyrethroids to juveniles and lower levels of exposure anticipated from dietary and residential uses are not expected to overwhelm the juvenile's ability to metabolize pyrethroids, as occurred with the high doses used in the literature studies. The fact that a greater sensitivity to the neurotoxicity of pyrethroids is not found in guideline studies following in utero exposures (based on 76 studies for 24 pyrethroids) supports this conclusion, despite the relatively high doses used in the studies. Second, in vitro data indicate similar pharmacodynamic response to pyrethroids between juvenile and adult rats. Finally, as indicated, pharmacokinetic modeling only predicts a 3X difference between juveniles and adults. Therefore, the FQPA SF of 3X is protective of potential juvenile sensitivity.
Further information about the reevaluation of the FQPA SF for pyrethroids may be found in document ID number EPA-HQ-OPP-2011-0746-0011.
1. Acute risk. Using the exposure assumptions discussed in this unit for acute exposure, the acute dietary exposure from food and water to fenpropathrin will occupy 93% of the aPAD for children 1-2 years old, the population group receiving the greatest exposure from the dietary assessment for infants and children less than 6 years old; and 20% of the aPAD for children 6 to 12 years old, the population group receiving the greatest exposure from the dietary assessment for the general population other than children less than 6 years old.
2. Chronic risk. Based on the data summarized in Unit III.A., there is no increase in hazard with increasing dose duration. Therefore, the acute aggregate assessment is protective of potential chronic aggregate exposures.
3. Short-term risk. Short-term aggregate exposure takes into account short-term residential exposure plus chronic exposure to food and water (considered to be a background exposure level). A short-term adverse effect was identified; however, fenpropathrin is not registered for any use patterns that would result in short-term residential exposure. Short-term risk is assessed based on short-term residential exposure plus chronic dietary exposure. Because there is no short-term residential exposure and acute dietary exposure has already been assessed under the appropriately protective aPAD (which is at least as Start Printed Page 69568protective as the POD used to assess short-term risk), no further assessment of short-term risk is necessary, and EPA relies on the acute dietary risk assessment for evaluating short-term risk for fenpropathrin.
4. Intermediate-term risk. Intermediate-term aggregate exposure takes into account intermediate-term residential exposure plus chronic exposure to food and water (considered to be a background exposure level). Because no intermediate-term adverse effect was identified, fenpropathrin is not expected to pose an intermediate-term risk.
5. Aggregate cancer risk for U.S. population. Based on the lack of evidence of carcinogenicity in two adequate rodent carcinogenicity studies, fenpropathrin is not expected to pose a cancer risk to humans.
6. Determination of safety. Based on these risk assessments, EPA concludes that there is a reasonable certainty that no harm will result to the general population or to infants and children from aggregate exposure to fenpropathrin residues.
Adequate enforcement methodology utilizing gas chromatography with electron capture detector (GC/ECD), Residue Method Numbers RM-22-4 (plants) and RM-22A-1 (animals), is available to enforce the tolerance expression.
Codex has established MRLs for tomatoes, sweet peppers, dried chili peppers, eggplant, grapes, and pome fruits. The MRLs for tomatoes, sweet peppers, grapes, and pome fruits are harmonized with the U.S. tolerances for the corresponding crop groups or subgroups. Codex MRLs for dried chili peppers (10 ppm) and eggplant (0.2 ppm) cannot be harmonized with the U.S. tolerance for the fruiting vegetable crop group (1.0 ppm), of which those commodities are a part. The Codex MRL for eggplant is lower than the recommended corresponding U.S. tolerance. Because the permitted domestic use on eggplant in accordance with the approved pesticide label results in residue levels higher than the Codex MRLs, the U.S. tolerance cannot be harmonized (lowered) since doing so would result in residues in excess of the approved tolerance in spite of use consistent with label directions. Concerning dried chili peppers, EPA, under its Residue Chemistry Test Guidelines (OPPTS 860.1000), does not set tolerances for dried chili peppers. Rather, residues on dried chili peppers would be covered under tolerances for non-bell peppers, which, for this chemical, are captured by the fruiting vegetable crop group tolerance. Under that U.S. tolerance, residues of fenpropathrin on dried chili peppers would be covered up to 1.0 ppm; residues in excess of that level would only be covered if EPA established a separate tolerance for them. At this time, however, EPA does not have data to support establishing a tolerance for dried chili peppers at 10 ppm.
Based on the data submitted with the petition, EPA is also removing the established tolerance for lingonberry. The Agency is removing this tolerance because it will be superseded by the new tolerance for bushberry subgroup 13-07B, established by this document. The removal does not substantively affect whether residues of fenpropathrin may be present on lingonberry. The new bushberry subgroup 13-07B tolerance is at the same level as the lingonberry tolerance being removed—3.0 ppm.
Therefore, tolerances are established for residues of fenpropathrin, alpha-cyano-3-phenoxybenzyl 2,2,3,3-tetramethylcyclopropanecarboxylate, in or on barley, grain at 0.04 ppm; barley, hay at 3.0 ppm; barley, straw at 2.0 ppm; berry, low-growing, subgroup 13-07G at 2.0 ppm; bushberry subgroup 13-07B at 3.0 ppm; fruit, citrus, group 10-10 at 2.0 ppm; fruit, pome, group 11-10 at 5.0 ppm; fruit, small vine climbing, except fuzzy kiwifruit, subgroup 13-07F at 5.0 ppm; and vegetable, fruiting, group 8-10 at 1.0 ppm. Additionally, this document removes the established tolerances of fenpropathrin in or on fruit, citrus, group 10; fruit, pome, group 11; bushberry subgroup 13B; grape; juneberry; lingonberry; salal; strawberry; and vegetable, fruiting, group 8.
This final rule directly regulates growers, food processors, food handlers, and food retailers, not States or tribes, nor does this action alter the relationships or distribution of power and responsibilities established by Congress in the preemption provisions of FFDCA section 408(n)(4). As such, the Agency has determined that this action will not have a substantial direct effect on States or tribal governments, on the relationship between the national government and the States or tribal Start Printed Page 69569governments, or on the distribution of power and responsibilities among the various levels of government or between the Federal Government and Indian Tribes. Thus, the Agency has determined that Executive Order 13132, entitled “Federalism” (64 FR 43255, August 10, 1999) and Executive Order 13175, entitled “Consultation and Coordination With Indian Tribal Governments” (65 FR 67249, November 9, 2000) do not apply to this final rule. In addition, this final rule does not impose any enforceable duty or contain any unfunded mandate as described under Title II of the Unfunded Mandates Reform Act of 1995 (UMRA) (2 U.S.C. 1501 et seq.).
2. In § 180.466:
a. Remove the entries for “Bushberry subgroup 13B,” “Fruit, citrus, group 10,” “Fruit, pome, group 11,” “Grape,” “Juneberry,” “Lingonberry,” “Salal,” “Strawberry,” and “Vegetable, fruiting, group 8” from the table in paragraph (a).
b. Add alphabetically the following entries to the table in paragraph (a).
Barley, grain 0.04
Barley, hay 3.0
Berry, low growing, subgroup 13-07G 2.0
[FR Doc. 2013-27680 Filed 11-19-13; 8:45 am]