Breast Cancer Fund's Faqs About Phthalates
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A Simple, Fast, and Reliable LC-MS/MS Method for Determination and Quantification of Phthalates in Distilled Beverages
A Simple, Fast, and Reliable LC-MS/MS Method for Determination and Quantification of Phthalates in Distilled Beverages Dimple Shah and Jennifer Burgess Waters Corporation, Milford, MA, USA APPLICATION BENEFITS INTRODUCTION ■■ Separation and detection of 7 phthalates Phthalates, esters of phthalic acid, are often used as plasticizers for polymers such in 11 minutes. as polyvinylchloride. They are widely applicable in various products including personal care goods, cosmetics, paints, printing inks, detergents, coatings, ■■ Simple, quick “dilute and shoot” sample preparation method for routine applications and food packaging. These phthalates have been found to leach readily into the where high sample throughput is required. environment and food as they are not chemically bound to plastics. As such they are known to be ubiquitously present in our environment. ■■ Elimination of major phthalate contamination using the ACQUITY UPLC® Isolator Column. Phthalates have been reported to show a variety of toxic effects related to reproduction in animal studies, which has resulted in these compounds being ■■ Selective mass spectra obtained for all seven considered as endocrine disruptors. Screening food and beverages for phthalates phthalates with dominant precursor ion. contamination is required by many legislative bodies, although regulations vary ■■ Low limits of quantification achieved using from country to country in regards to acceptable daily tolerances and specific Waters® ACQUITY UPLC H-Class System migration limits. and Xevo® TQD. Traditionally, phthalates have been analyzed by gas chromatography-mass ■■ Single and robust method for a variety spectrometry (GC-MS), where derivatization and/or extraction and sample of distilled beverages. preparation is often required to improve chromatographic separation.1 The ■■ Maintain consumer confidence and resulting GC-EI-MS spectra can lack selectivity, where the base ion, used for ensure compliance in market. -
Phthalate Testing ‐ Frequently Asked Questions Updated February, 2009
Phthalate Testing ‐ Frequently Asked Questions Updated February, 2009 Q. Which specific phthalates is the Consumer Products Safety Information Act (CPSIA) concerned about? A. The six phthalate plasticizers of interest are: Diisononyl phthalate (DINP), Di‐2‐ ethylhexylphthalate (DEHP, sometimes called DOP), di‐n‐octyl phthalate (DnOP), Di‐isodecyl phthalate (DIDP), butylbenzyl phthalate (BBP), and dibutyl phthalate (DBP). Q. What can Polymer Diagnostics Inc. (PDI) test? A. PDI can test raw materials, compounds and finished goods. Q. How does PDI perform the testing? A. Samples are initially extracted (or diluted), and then analyzed by Gas Chromatography‐Mass Spectrometry [GC‐MS]. Depending on the results, additional analyses may be done to verify results and insure accuracy. This helps reduce the potential for false positives. Q. What about false positives? A. Although GC‐MS can reduce the likelihood of mis‐identification, the complexity of many formulations cannot rule this out. Further refinements of the analysis conditions or use of other separation techniques helps to enhance the reliability of the results. In those cases where the interference cannot be eliminated, results will clearly state this fact. Q. What is the current standard for testing for phthalates? A. Some literature has cited ASTM 3421‐75 as applicable for this testing. This method has been discontinued by ASTM, and has not been replaced. The regulatory body responsible for the CPSIA is currently working on recommending an improved method, but this is still in the planning stage. Q. What are the current issues, if any, with the test methods? A. Any method recommended should use current analytical methodologies. -
162 Part 175—Indirect Food Addi
§ 174.6 21 CFR Ch. I (4–1–19 Edition) (c) The existence in this subchapter B Subpart B—Substances for Use Only as of a regulation prescribing safe condi- Components of Adhesives tions for the use of a substance as an Sec. article or component of articles that 175.105 Adhesives. contact food shall not be construed as 175.125 Pressure-sensitive adhesives. implying that such substance may be safely used as a direct additive in food. Subpart C—Substances for Use as (d) Substances that under conditions Components of Coatings of good manufacturing practice may be 175.210 Acrylate ester copolymer coating. safely used as components of articles 175.230 Hot-melt strippable food coatings. that contact food include the fol- 175.250 Paraffin (synthetic). lowing, subject to any prescribed limi- 175.260 Partial phosphoric acid esters of pol- yester resins. tations: 175.270 Poly(vinyl fluoride) resins. (1) Substances generally recognized 175.300 Resinous and polymeric coatings. as safe in or on food. 175.320 Resinous and polymeric coatings for (2) Substances generally recognized polyolefin films. as safe for their intended use in food 175.350 Vinyl acetate/crotonic acid copoly- mer. packaging. 175.360 Vinylidene chloride copolymer coat- (3) Substances used in accordance ings for nylon film. with a prior sanction or approval. 175.365 Vinylidene chloride copolymer coat- (4) Substances permitted for use by ings for polycarbonate film. 175.380 Xylene-formaldehyde resins con- regulations in this part and parts 175, densed with 4,4′-isopropylidenediphenol- 176, 177, 178 and § 179.45 of this chapter. -
Diisononyl Phthalate (DINP) C26H42O4
CAS 28553-12-0 Diisononyl Phthalate (DINP) C26H42O4 Summary of Health Effects In a study that looked at the effects on male Diisononyl phthalate (DINP) can lead to growth rats of perinatal exposure to several phthalates, of tumors in the liver, spleen and kidneys of DINP was one of three phthalates that altered animals and can affect how unborn babies sexual differentiation.4 Several animal studies develop. It may also cause cancer in humans. have demonstrated that DINP exposure increased the incidence of liver, spleen and 1 How is DINP used? kidney tumors. DINP is primarily used as a plasticizer or softener in polyvinyl chloride (PVC) products, DINP induces antiandrogenic affects in animals, and therefore can contribute to the cumulative including vinyl flooring, wire and cable risk from exposure to other antiandrogenic insulation, coated fabrics, gloves, toys, garden phthalates.5 hoses, artificial leather and footwear.1 DINP is also used in other products such as rubber, inks, pigments and paints.1 Exposure: How can a person come in contact with it? Toxicity: What are its health effects? A person can come in contact with DINP by The National Toxicology Program determined breathing in contaminated air, swallowing dust, through animal testing that DINP is a eating contaminated food, or from skin contact 6 developmental toxicant based on fetuses with consumer products. growing additional ribs at the high dose tested.2 The National Health and Nutrition Examination DINP is listed as a carcinogen on California’s Survey (NHANES) 2005-2006 results showed Proposition 65 list.3 that mono-(carboxyoctyl) phthalate, a metabolite (breakdown product) of DINP, is present in urine samples of 95.2% of the sampled U.S. -
(12) Patent Application Publication (10) Pub. No.: US 2006/0020077 A1 Miyoshi Et Al
US 20060020077A1 (19) United States (12) Patent Application Publication (10) Pub. No.: US 2006/0020077 A1 Miyoshi et al. (43) Pub. Date: Jan. 26, 2006 (54) ELECTRICALLY CONDUCTIVE RESIN (30) Foreign Application Priority Data COMPOSITION AND PRODUCTION PROCESS THEREOF Apr. 26, 2000 (JP)...................................... 2000-125081 (76) Inventors: Takaaki Miyoshi, Kimitsu-shi (JP); Publication Classification Kazuhiko Hashimoto, Sodegaura-shi (JP) (51) Int. Cl. C08K 3/04 (2006.01) Correspondence Address: (52) U.S. Cl. .............................................................. 524/495 BRCH STEWART KOLASCH & BRCH PO BOX 747 FALLS CHURCH, VA 22040-0747 (US) (57) ABSTRACT A resin composition comprising a polyamide, a polyphe (21) Appl. No.: 11/203,245 nylene ether, an impact modifier, and a carbon type filler for (22) Filed: Aug. 15, 2005 an electrically conductive use, the filler residing in a phase of the polyphenylene ether. The resin composition of the Related U.S. Application Data present invention has excellent electrical conductivity, flu idity, and an excellent balance of a coefficient of linear (62) Division of application No. 10/240,793, filed on Oct. expansion and an impact resistance, and generation of fines 4, 2002, filed as 371 of international application No. caused by pelletizing thereof can be largely Suppressed PCT/JPO1/O1416, filed on Feb. 26, 2001. when processing of an extrusion thereof is conducted. Patent Application Publication Jan. 26, 2006 US 2006/0020077 A1 FIG. 1 FIG. 2 US 2006/0020077 A1 Jan. 26, 2006 ELECTRICALLY CONDUCTIVE RESIN 0009 From the above-described standpoint, the tech COMPOSITION AND PRODUCTION PROCESS nique wherein improvement in balance of a coefficient of THEREOF linear expansion and an impact resistance can be attained by using a composition Substantially not containing an inor 0001. -
Migration of Chemical Additives from Plastic Products a Literature Review
s REPORT M-1906 | 2020 Migration of chemical additives from plastic products A literature review COLOPHON Executive institution Norwegian Environment Agency Project manager for the contractor Contact person in the Norwegian Environment Agency Heidi Morka Marianne van der Hagen M-no Year Pages Contract number 1906 2020 18 [Contract number] Publisher The project is funded by Norwegian Environment Agency Norwegian Environment Agency Author(s) Clare Andvik Title – Norwegian and English Migrasjon av tilsetningsstoffer fra plastprodukter: En vitenskapelig gjennomgang av litteratur Migration of chemical additives from plastic products: A literature review Summary – sammendrag Plastic polymers are often incorporated with various “additives”, which have the potential to migrate from plastic products and cause harm to both humans and the environment. This literature review gives an overview of the migration of chemical additives from plastic products used in building/construction materials, electronics, and furnishings/upholstery. Our scope was products used in the home, to reflect the possible exposure to consumers within the product lifetime. We found that within building/construction materials, the release of phthalates from plastic flooring is commonly measured, with DEHP having the highest migration rate and migration rates increasing with temperature. Within electronics, brominated flame retardants are often measured, but it is challenging to compare studies when differing measurement units are utilised. TCPP was commonly measured as emitted -
Hazardous Substances in Plastic Materials
TA Hazardous substances in plastic 3017 materials 2013 Prepared by COWI in cooperation with Danish Technological Institute Preface This report is developed within the project of mapping of prioritized hazardous substances in plastic materials. The report presents key information on the most used plastic types and their characteristics and uses, as well as on hazardous substances used in plastics and present on the Norwegian Priority List of hazardous substances (“Prioritetslisten”) and/or the Candidate List under REACH, by August 2012. The aim of the report is to be a brief handbook on plastic types and hazardous substances in plastics providing knowledge on the characteristics and use of different plastic materials and the function, uses, concentration, release patterns, and alternatives of the hazardous substances, allowing the user to use the report as an introduction and overview on the most important hazardous substances in plastics and the plastic types, they primarily are used in. The development of the report has been supervised by a steering committee consisting of: Inger-Grethe England, Klima- og Forurensningsdirektoratet (chairman) Pia Linda Sørensen, Klima- og Forurensningsdirektoratet Erik Hansen, COWI, Denmark Nils H. Nilsson, Danish Technological Institute The report has been prepared by Erik Hansen, COWI-Denmark, Nils H. Nilsson, Danish Technological Institute, Delilah Lithner, COWI-Sweden and Carsten Lassen COWI- Denmark. Vejle, Denmark, 15. January 2013 Erik Hansen, COWI (project manager) 1 Content English Summary and -
Polyvinylchloride, Phthalates and Packaging
Page 29 | Bulletin 86 | July 2014 Polyvinylchloride, phthalates and packaging Plastics are synthetic resins, are either thermosetting or thermoplastic. Thermoplastic resins can be re-softened by heating, and include polyethylene (PE), polystyrene (PS), polypropylene (PP), and polyvinylchloride (PVC) which is very widely used in disposable medical devices. Polyvinylchloride (PVC) Di(2-ethylhexyl) phthalate (DEHP) Vinyl chloride (CH2=CHCl or chloroethylene) DEHP (sometimes referred to as bis is polymerized by free-radical initiators to (2-ethylhexyl) phthalate) is the diester of open the double bond and to link together phthalic acid and 2 ethylhexanol (Figure 2). vinyl chloride monomers, to form repeating Dr A M Walton units of polymers (Figure 1). Figure 2 The structure of di(2-ethylhexyl) phthalate DEHP. Anaesthesia ST 7, Figure 1 The phthalic moiety is common to all phthalates; University Hospital The chemical structure of vinyl chloride and PVC the pair of symmetrical aliphatic chains depends Southampton on the esterified alcohol PVC is a rigid structure at room temperature. Heating gives the molecules energy, widens the distance between between the molecules and softens the resin. To give PVC flexibility at room and body temperatures, plasticisers Dr J M T Pierce are added non-covalently to the PVC when Consultant Anaesthetist, At room temperature it is a colourless, oil- University Hospital molten and serve as molecular spacers so soluble viscous liquid and is used to form Southampton; RCoA when cooled the polymer has a softness even up to 40% of the mass of the PVC product. Environmental Advisor at room temperatures. The most commonly The annual global production of DEHP is used plasticisers are phthalates. -
Selected Plasticisers and Additional Sweeteners in the Nordic Environment Selected Plasticisers and Additional Sweeteners in the Nordic Environment
TemaNord 2013:505 TemaNord Ved Stranden 18 DK-1061 Copenhagen K www.norden.org Selected Plasticisers and Additional Sweeteners in the Nordic Environment Selected Plasticisers and Additional Sweeteners in the Nordic Environment The report Selected plasticisers and additional sweeteners in the Nordic Environment describes the findings of a Nordic environmental study. The study has been done as a screening, that is, it provides a snapshot of the occurrence of selected plasticisers and sweeteners, both in regions most likely to be polluted as well as in some very pristine environments. The pla- sticisers analysed were long chained phthalates and adipates, and the sweeteners analysed were aspartame, cyclamate and sucralose. The purpose of the screening was to elucidate levels and pathways of hitherto unrecognized pollutants. Thus the samples analysed were taken mainly from sewage lines, but also in recipients and biota, both in assumed hot-spot areas and in background areas. TemaNord 2013:505 ISBN 978-92-893-2464-9 ISBN 978-92-893-2464-9 9 789289 324649 TN2013505 omslag.indd 1 18-02-2013 10:25:36 Selected Plasticisers and Additional Sweeteners in the Nordic Environment Mikael Remberger, Lennart Kaj, Katarina Hansson, Hanna Andersson and Eva Brorström-Lundén, IVL Swedish Environmental Research Institute, Helene Lunder and Martin Schlabach, NILU, Norwegian Institute for Air Research TemaNord 2013:505 Selected Plasticisers and Additional Sweeteners in the Nordic Environment Mikael Remberger, Lennart Kaj, Katarina Hansson, Hanna Andersson and Eva Brorström-Lundén, IVL Swedish Environmental Research Institute, Helene Lunder and Martin Schlabach, NILU, Norwegian Institute for Air Research ISBN 978-92-893-2464-9 http://dx.doi.org/10.6027/TN2013-505 TemaNord 2013:505 © Nordic Council of Ministers 2013 Layout: Hanne Lebech/NMR Cover photo: Image Select Print: Rosendahls-Schultz Grafisk Copies: 150 Printed in Denmark This publication has been published with financial support by the Nordic Council of Ministers. -
Toxicity Review for Diisononyl Phthalate (DINP)
risk is performed to evaluate whether the chemical may be considered a “hazardous substance” under the FHSA. Purpose and Scope of the Report The primary purpose of the attached report is to complete the first two steps in the risk assessment process, that is, the hazard identification and dose response assessment. In addition, the report briefly summarizes published information relating to exposure, as well as published exposure and risk assessments. The sections on exposure and risk assessment are included to provide additional context for the reader, and as background for future risk assessments. However, quantitative exposure and risk assessments are beyond the scope of this report. Cumulative risks from exposure to multiple phthalates are also not included in this report, although they are briefly discussed. The information in this report will be provided to the Chronic Hazard Advisory Panel on Phthalates. This panel will convene in 2010 to assess the potential health effects of cumulative exposure to phthalates from all sources, including children’s articles and cosmetics. -2- Contents Summary ..............................................................................................................................v Abbreviations .................................................................................................................... vii 1. Introduction ...........................................................................................................1 2. Chemistry and Use ................................................................................................4 -
Proposed Designation of Butyl Benzyl Phthalate As a High-Priority
United States Office of Chemical Safety and Environmental Protection Agency Pollution Prevention Proposed Designation of Butyl Benzyl Phthalate (CASRN 85-68-7) as a High-Priority Substance for Risk Evaluation August 22, 2019 Table of Contents List of Tables ................................................................................................................................ iii Acronyms and Abbreviations ..................................................................................................... iv 1. Introduction ............................................................................................................................... 1 2. Production volume or significant changes in production volume ........................................ 3 Approach ..................................................................................................................................... 3 Results and Discussion ............................................................................................................... 3 3. Conditions of use or significant changes in conditions of use ............................................... 3 Approach ..................................................................................................................................... 3 CDR Tables ................................................................................................................................. 4 CDR and TRI Summary and Additional Information on Conditions of Use ............................. 6 -
Common Chemical Additives in Plastics
Journal of Hazardous Materials 344 (2018) 179–199 Contents lists available at ScienceDirect Journal of Hazardous Materials j ournal homepage: www.elsevier.com/locate/jhazmat Review An overview of chemical additives present in plastics: Migration, release, fate and environmental impact during their use, disposal and recycling a,∗ a,∗ b a a John N. Hahladakis , Costas A. Velis , Roland Weber , Eleni Iacovidou , Phil Purnell a School of Civil Engineering, University of Leeds, Woodhouse Lane, LS2 9JT, Leeds, United Kingdom b POPs Environmental Consulting, Lindenfirststr. 23, D.73527, Schwäbisch Gmünd, Germany h i g h l i g h t s g r a p h i c a l a b s t r a c t • Plastics are important in our society providing a range of benefits. • Waste plastics, nowadays, burden the marine and terrestrial environment. • Additives and PoTSs create complica- tions in all stages of plastics lifecycle. • Inappropriate use, disposal and recy- cling may lead to undesirable release of PoTSs. • Sound recycling of plastics is the best waste management and sustainable option. a r t i c l e i n f o a b s t r a c t Article history: Over the last 60 years plastics production has increased manifold, owing to their inexpensive, multipur- Received 22 July 2017 pose, durable and lightweight nature. These characteristics have raised the demand for plastic materials Received in revised form 2 October 2017 that will continue to grow over the coming years. However, with increased plastic materials production, Accepted 7 October 2017 comes increased plastic material wastage creating a number of challenges, as well as opportunities to Available online 9 October 2017 the waste management industry.