SCCS/1627/21 Final Opinion
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www.mmsus.com | 952.525.2005 COVID-19 PRODUCTS Midwest Mechanical Solutions is your partner in optimizing your building for a safe, healthy, and comfortable environment for all. Contact your MMS Representative at any time, we are here to help. Advanced HEPA Filtration Recirculation/Negative Pressure Units AF400NP 1400 cubic foot room / 280 CFM • Air Flow: Nominal 132 l/s / 280 CFM • Voltage: 120V (2A) or 230V (1A) • Dimensions: 21"H x 13"W x 16"D / 55cm x 33cm x 40cm • Filtration: 2” Pre-lter MERV10 6” Medical grade HEPA lter 99.97% (to 0.3 micron) • Optional: chemical lter • Inlet: Bottom inlet • Discharge: 4” Discharge collar • Exhaust kit included • Sound Level: Whisper quiet, 56 dBA • Controls: Remote ON/OFF, communication capabilities, audible and visual alarms AF1000NP 3000 cubic foot room / 600 CFM • Air Flow: Nominal 283 l/s / 600 CFM • Voltage: 120V (2A) or 230V (1A) • Dimensions: 56"H x 16"W x 22"D / 132cm x 40cm x 56cm • Filtration: 2” Pre-lter MERV10 12” High capacity pleated lter MERV12 6” Medical grade HEPA lter 99.97% (down to 0.3 micron) • Optional: chemical lter (up to 50 lbs./23 kg) • Inlet: Bottom inlet • Discharge: 6” Discharge collar (4”, 8” optional) • Exhaust kit included • Sound Level: Whisper quiet, 54 dBA Controls: • Remote ON/OFF, communication capabilities, audible and visual alarms AF2000NP 5000 cubic foot room / 1000 CFM • Air Flow: Nominal 283 l/s / 600 CFM • Voltage: 120V (2A) or 230V (1A) • Dimensions: 56"H x 16"W x 22"D / 132cm x 40cm x 56cm • Filtration: 2” Pre-lter MERV10 12” High capacity pleated lter -
A Thesis Entitled Evaluating UVB and UVA Boosting Technologies For
A Thesis entitled Evaluating UVB and UVA Boosting Technologies for Chemical and Physical Sunscreens by An Ngoc Hiep Huynh Submitted to the Graduate Faculty as partial fulfillment of the requirements for the Master of Science Degree in Pharmaceutical Sciences Industrial Pharmacy ___________________________________________ Gabriella Baki, Ph.D., Committee Chair ___________________________________________ Jerry Nesamony, Ph.D., Committee Member ___________________________________________ Matthew W. Liberatore, Ph.D., Committee Member ___________________________________________ Dr. Amanda C. Bryant-Friedrich, Dean College of Graduate Studies The University of Toledo May 2020 Copyright 2020 An Ngoc Hiep Huynh This document is copyrighted material. Under copyright law, no parts of this document may be reproduced without the expressed permission of the author. An Abstract of Evaluating UVB and UVA Boosting Technologies for Chemical and Physical Sunscreens by An Ngoc Hiep Huynh Submitted to the Graduate Faculty as partial fulfillment of the requirements for the Master of Science Degree in Pharmaceutical Sciences Industrial Pharmacy The University of Toledo May 2020 There are currently 14 organic and 2 inorganic UV filters approved in the United States. Due to coral reef safety concerns, octinoxate and oxybenzone have been banned in Hawaii, Key West, FL and the US Virgin Islands; and octocrylene is also being studied for its potential impact on coral reef safety, leaving 11 organic UV filters as viable options for sunscreen manufacturers – with limitations on their combination. Since consumers are always looking for sunscreens with high SPF and broad-spectrum protection, the need for UVB and UVA protection boosting technologies is greater than ever. In a preliminary study, about two dozen emollients were scanned for their SPF boosting capability with selected organic UV filters. -
Toxic Effects
Chapter 8 Toxic effects Toxic and other adverse effects studies of tens or hundreds of patients spectrum to which the skin is exposed of sunscreens (Thune, 1984; English et al., 1987; (Gasparro et al., 1998). Since UVB is the In order for a sunscreen to have a toxic Lenique et al., 1992; Szczurko et al., primary stimulus for adaptation of the effect on living tissues, it must penetrate 1994; Trevisi et al., 1994; Gonçalo et al., skin to sunlight, less adaptation might be the skin. There is some evidence that 1995; Ang et al., 1998) and reviews expected to develop in individuals who this can occur (see p. 63 et seq.). (Dromgoole & Maibach, 1990; Gonzalez use sunscreens regularly. The adaptive & Gonzalez, 1996; Schauder & Ippen, responses include thickening of the epi- Human studies 1997). In the past, PABA and its esters dermis and transfer of melanin-contain- No published studies of toxic effects in were the most commonly reported ing granules to keratinocytes (tanning) humans were available to the Working contact and photoallergens in sun- (Fig. 44), which reduces the trans- Group. screens (Funk et ai., 1997), and this find- parency of the skin to UVA and UVB ing contributed to a reduction in their use (Fusaro et al., 1966; Olson et al., 1973). Contact sensitivity in sunscreens. The contact or photocon- Several reports showed that UVR- There are numerous reports of cases of tact allergen in sunscreens most induced injury, such as dermal connec- allergic reactions and photoreactivity to frequently cited today is benzophenone- tive tissue damage and sunburn cell for- sunscreens, but the prevalence of this 3, followed by dibenzoyl methanes. -
Principles and Methods for the Risk Assessment of Chemicals in Food
WORLD HEALTH ORGANIZATION ORGANISATION MONDIALE DE LA SANTE EHC240: Principles and Methods for the Risk Assessment of Chemicals in Food SUBCHAPTER 4.5. Genotoxicity Draft 12/12/2019 Deadline for comments 31/01/2020 The contents of this restricted document may not be divulged to persons other than those to whom it has been originally addressed. It may not be further distributed nor reproduced in any manner and should not be referenced in bibliographical matter or cited. Le contenu du présent document à distribution restreinte ne doit pas être divulgué à des personnes autres que celles à qui il était initialement destiné. Il ne saurait faire l’objet d’une redistribution ou d’une reproduction quelconque et ne doit pas figurer dans une bibliographie ou être cité. Hazard Identification and Characterization 4.5 Genotoxicity ................................................................................. 3 4.5.1 Introduction ........................................................................ 3 4.5.1.1 Risk Analysis Context and Problem Formulation .. 5 4.5.2 Tests for genetic toxicity ............................................... 14 4.5.2.2 Bacterial mutagenicity ............................................. 18 4.5.2.2 In vitro mammalian cell mutagenicity .................... 18 4.5.2.3 In vivo mammalian cell mutagenicity ..................... 20 4.5.2.4 In vitro chromosomal damage assays .................. 22 4.5.2.5 In vivo chromosomal damage assays ................... 23 4.5.2.6 In vitro DNA damage/repair assays ....................... 24 4.5.2.7 In vivo DNA damage/repair assays ....................... 25 4.5.3 Interpretation of test results ......................................... 26 4.5.3.1 Identification of relevant studies............................. 27 4.5.3.2 Presentation and categorization of results ........... 30 4.5.3.3 Weighting and integration of results ..................... -
Sunscreen Enhancement of Octyl Methoxycinnamate Microcapsules by Using Two Biopolymers As Wall Materials
polymers Article Sunscreen Enhancement of Octyl Methoxycinnamate Microcapsules by Using Two Biopolymers as Wall Materials Chuntao Xu 1,2 , Xuemin Zeng 3, Zujin Yang 4,* and Hongbing Ji 1,3,4,5,* 1 School of Chemistry and Chemical Engineering, Guangxi University, Nanning 530004, China; [email protected] 2 School of Information Engineering, Zhongshan Polytechnic, Zhongshan 528400, China 3 Fine Chemical Industry Research Institute, School of Chemistry, Sun Yat-Sen University, Guangzhou 510275, China; [email protected] 4 School of Chemical Engineering and Technology, Sun Yat-Sen University, Zhuhai 519082, China 5 School of Chemical Engineering, Guangdong University of Petrochemical Technology, Maoming 525000, China * Correspondence: [email protected] (Z.Y.); [email protected] (H.J.) Abstract: Octyl methoxycinnamate (OMC) is widely used as a chemical sunscreen in sunscreen cosmetics. However, its direct contact with the skin would bring certain risks, such as skin photo- sensitive reaction. How to improve the effect of skin photodamage protection has become a current research hotspot. Encapsulating ultraviolet (UV) filters into microcapsules is an interesting method to increase the photostability of filters. In this study, sodium caseinate (SC) and arabic gum (GA) are chosen as wall materials to prepare synergistic sunscreen microcapsules by complex coacervation technology. A series of experiments are conducted to investigate the effects of pH, wall material concentration, and wall/core ratio on the formation of OMC microcapsules. The morphology, com- position, and stability of OMC microcapsules are characterized by scanning electron microscopy Citation: Xu, C.; Zeng, X.; Yang, Z.; Ji, (SEM), Fourier transform infrared spectroscopy (FTIR), and thermogravimetric analysis (TGA). -
FDA Proposes Sunscreen Regulation Changes February 2019
FDA Proposes Sunscreen Regulation Changes February 2019 The U.S. Food and Drug Administration (FDA) regulates sunscreens to ensure they meet safety and eectiveness standards. To improve the quality, safety, and eectiveness of sunscreens, FDA issued a proposed rule that describes updated proposed requirements for sunscreens. Given the recognized public health benets of sunscreen use, Americans should continue to use broad spectrum sunscreen with SPF 15 or higher with other sun protective measures as this important rulemaking eort moves forward. Highlights of FDA’s Proposals Sunscreen active ingredient safety and eectiveness Two ingredients (zinc oxide and titanium dioxide) are proposed to be safe and eective for sunscreen use and two (aminobenzoic acid (PABA) and trolamine salicylate) are 1 proposed as not safe and eective for sunscreen use. FDA proposes that it needs more safety information for the remaining 12 sunscreen ingredients (cinoxate, dioxybenzone, ensulizole, homosalate, meradimate, octinoxate, octisalate, octocrylene, padimate O, sulisobenzone, oxybenzone, avobenzone). New proposed sun protection factor Sunscreen dosage forms (SPF) and broad spectrum Sunscreen sprays, oils, lotions, creams, gels, butters, pastes, ointments, and sticks are requirements 2 proposed as safe and eective. FDA 3 • Raise the maximum proposed labeled SPF proposes that it needs more data for from SPF 50+ to SPF 60+ sunscreen powders. • Require any sunscreen SPF 15 or higher to be broad spectrum • Require for all broad spectrum products SPF 15 and above, as SPF increases, broad spectrum protection increases New proposed label requirements • Include alphabetical listing of active ingredients on the front panel • Require sunscreens with SPF below 15 to include “See Skin Cancer/Skin Aging alert” on the front panel 4 • Require font and placement changes to ensure SPF, broad spectrum, and water resistance statements stand out Sunscreen-insect repellent combination 5 products proposed not safe and eective www.fda.gov. -
Annex VI, Last Update: 02/08/2021
File creation date: 03/10/2021 Annex VI, Last update: 22/09/2021 LIST OF UV FILTERS ALLOWED IN COSMETIC PRODUCTS Substance identification Conditions Wording of Reference Maximum conditions of Product Type, concentration Update date number Chemical name / INN / XAN Name of Common Ingredients Glossary CAS Number EC Number Other use and body parts in ready for use warnings preparation 2 N,N,N-Trimethyl-4-(2-oxoborn-3-ylidenemethyl CAMPHOR BENZALKONIUM 52793-97-2 258-190-8 6% 15/10/2010 ) anilinium methyl sulphate METHOSULFATE 3 Benzoic acid, 2-hydroxy-, HOMOSALATE 118-56-9 204-260-8 10% 02/08/2021 3,3,5-trimethylcyclohexyl ester / Homosalate 4 2-Hydroxy-4-methoxybenzophenone / BENZOPHENONE-3 131-57-7 205-031-5 6% Reg (EU) Not more than Contains 02/08/2021 Oxybenzone 2017/238 of 10 0,5 % to protect Benzophenone-3 February 2017- product (1) date of formulation application from September 2017 6 2-Phenylbenzimidazole-5-sulphonic acid and its PHENYLBENZIMIDAZOLE SULFONIC 27503-81-7 248-502-0 8%(as acid) 08/03/2011 potassium, sodium and triethanolamine salts / ACID Ensulizole 7 3,3'-(1,4-Phenylenedimethylene) bis TEREPHTHALYLIDENE DICAMPHOR 92761-26-7 / 410-960-6 / - 10%(as acid) 26/10/2010 (7,7-dimethyl-2-oxobicyclo-[2.2.1] SULFONIC ACID 90457-82-2 hept-1-ylmethanesulfonic acid) and its salts / Ecamsule 8 1-(4-tert-Butylphenyl)-3-(4-methoxyphenyl) BUTYL 70356-09-1 274-581-6 5% 15/10/2010 propane-1,3-dione / Avobenzone METHOXYDIBENZOYLMETHANE 9 alpha-(2-Oxoborn-3-ylidene)toluene-4-sulphoni BENZYLIDENE CAMPHOR SULFONIC 56039-58-8 - 6%(as acid) -
Should a Toxicological Risk Assessment of Ubiquitous Chemicals Be Done Using Data from Only One Source of Exposure?
Mini Review Open Acc J of Toxicol Volume 4 Issue 2 - January 2020 Copyright © All rights are reserved by Di Nardo JC DOI: 10.19080/OAJT.2020.04.555633 Should a Toxicological Risk Assessment of Ubiquitous Chemicals Be Done Using Data from Only One Source of Exposure? Di Nardo JC1* and CA Downs2 1Retired Toxicologist, Vesuvius, USA 2Executive Director, Haereticus Environmental Laboratory, Clifford, USA Submission: January 09, 2020; Published: January 23, 2020 *Corresponding author: Di Nardo JC, Retired Toxicologist, Vesuvius, USA Keywords: Toxicological; Chemicals; Dioxybenzone; Octocrylene; Oxybenzone; Sulisobenzone Introduction consumers to believe that there is no further risk associated with the After much discussion and petitioning by several individuals, chemical. non-governmental organizations and scientists alike, the Food & Drug Administration (FDA) re-opened the sunscreen drug monograph Data on February 26, 2019 to review the safety of sunscreen actives In October of 2018 the Food & Drug Administration (FDA) banned considered Generally Recognized as Safe and Effective (GRASE) the chemical benzophenone from use in foods and/or in plastic food since 1978 [1]. After their review, the FDA concluded that the public wraps [3], because it was found to cause cancer in rodents according to a study conducted by the National Institute of Environmental safety of a dozen drug actives currently in use (several of which record “does not” currently contain sufficient data to support the Health Sciences in May 2007 [3]. In June 2012 the state of California are benzophenone based chemicals - avobenzone, dioxybenzone, added benzophenone to their Proposition 65 list recognizing it as octocrylene, oxybenzone and sulisobenzone) and, therefore, are a carcinogen and came to an agreement that a sunscreen product requesting industry to provide additional data (mainly toxicokinetics, should not contain any more that 50 parts per million [4]. -
Salicylate UV-Filters in Sunscreen Formulations Compromise the Preservative System Efficacy Against Pseudomonas Aeruginosa and Burkholderia Cepacia
cosmetics Article Salicylate UV-Filters in Sunscreen Formulations Compromise the Preservative System Efficacy against Pseudomonas aeruginosa and Burkholderia cepacia Noa Ziklo, Inbal Tzafrir, Regina Shulkin and Paul Salama * Innovation department, Sharon Laboratories Ltd., Odem St. Industrial zone Ad-Halom, Ashdod 7898800, Israel; [email protected] (N.Z.); [email protected] (I.T.); [email protected] (R.S.) * Correspondence: [email protected]; Tel.: +972-54-2166476 Received: 15 July 2020; Accepted: 1 August 2020; Published: 3 August 2020 Abstract: Contamination of personal-care products are a serious health concern and therefore, preservative solutions are necessary for the costumers’ safety. High sun protection factor (SPF) sunscreen formulations are known to be difficult to preserve, due to their high ratio of organic phase containing the UV-filters. Salicylate esters such as octyl salicylate (OS) and homosalate (HS) are among the most common UV-filters currently used in the market, and can undergo hydrolysis by esterase molecules produced by contaminant microorganisms. The hydrolysis product, salicylic acid (SA) can be assimilated by certain bacteria that contain the chorismate pathway, in which its final product is pyochelin, an iron-chelating siderophore. Here, we show that OS and HS can compromise the preservative efficacy against two pathogenic important bacteria, Pseudomonas aeruginosa and Burkholderia cepacia. Challenge tests of formulations containing the UV-filters demonstrated that only bacteria with the chorismate pathway failed to be eradicated by the preservation system. mRNA expression levels of the bacterial pchD gene, which metabolizes SA to produce pyochelin, indicate a significant increase that was in correlation with increasing concentrations of both OS and HS. -
Cutaneous Permeation and Penetration of Sunscreens: Formulation Strategies and in Vitro Methods
cosmetics Review Cutaneous Permeation and Penetration of Sunscreens: Formulation Strategies and In Vitro Methods Silvia Tampucci * ID , Susi Burgalassi ID , Patrizia Chetoni ID and Daniela Monti ID Department of Pharmacy, University of Pisa, 56126 Pisa, Italy; [email protected] (S.B.); [email protected] (P.C.); [email protected] (D.M.) * Correspondence: [email protected] Received: 1 November 2017; Accepted: 7 December 2017; Published: 25 December 2017 Abstract: Sunscreens are the most common products used for skin protection against the harmful effects of ultraviolet radiation. However, as frequent application is recommended, the use of large amount of sunscreens could reflect in possible systemic absorption and since these preparations are often applied on large skin areas, even low penetration rates can cause a significant amount of sunscreen to enter the body. An ideal sunscreen should have a high substantivity and should neither penetrate the viable epidermis, the dermis and the systemic circulation, nor in hair follicle. The research of methods to assess the degree of penetration of solar filters into the skin is nowadays even more important than in the past, due to the widespread use of nanomaterials and the new discoveries in cosmetic formulation technology. In the present paper, different in vitro studies, published in the last five years, have been reviewed, in order to focus the attention on the different methodological approaches employed to effectively assess the skin permeation and retention of sunscreens. Keywords: sunscreens; formulation; in vitro methods; cutaneous permeation; skin penetration 1. Introduction The detrimental effects of human exposure to ultraviolet (UV) radiation have been widely investigated and can be immediate, as in the case of sunburns, or long-term, causing, in most cases, the formation of oxidizing species responsible of photo-aging, immunosuppression and chronic effects such as photo carcinogenicity [1,2]. -
EWG Petitions CDC to Conduct Biomonitoring Studies for Common Sunscreen Chemicals
EWG Petitions CDC To Conduct Biomonitoring Studies for Common Sunscreen Chemicals May 22, 2019 To: U.S. Department of Health and Human Services Centers for Disease Control and Prevention National Center for Environmental Health Agency for Toxic Substances and Disease Registry 4770 Buford Hwy, NE Atlanta, GA 30341 Patrick Breysse, Ph.D., CIH Environmental Working Group (EWG), a nonprofit research and advocacy organization with headquarters in Washington, D.C., is petitioning the Centers for Disease Control and Prevention to add common sunscreen chemicals to the CDC’s Biomonitoring Program. EWG has been doing research on sunscreen ingredients since 2007, helping to educate the public about the importance of using sunscreens for health protection, as well as providing information about health risks that may be associated with certain ingredients used in sunscreen products. In response to a significant increase in the use of sunscreens in the United States and the associated increased potential for systemic exposure to the ingredients in these products, in February 2019, the Food and Drug Administration proposed a new rule for sunscreen products.1 The proposed rule would require sunscreen active ingredients to be assessed for their propensity to absorb through the skin and overall safety. Recently, the FDA completed tests on the absorbance of four common sunscreen active ingredients: avobenzone, oxybenzone, octocrylene, and ecamsule. As reported in a study published by the Journal of American Medical Association in May 2019,2 application of all four tested sunscreen ingredients resulted in plasma concentrations that exceeded the 0.5 ng/mL threshold proposed by the FDA for waiving systemic carcinogenicity studies as well as developmental and reproductive toxicity studies. -
Sun Protection & Sun Screens | Four Seasons Dermatology
FOUR SEASONS DERMATOLOGY 354 MOUNTAIN VIEW DR. • SUITE 300 • COLCHESTER, VT 05446-5988 • PHONE 802-864-0192 • FAX 802-860-4919 SUN PROTECTION AND SUNSCREENS Repeated and prolonged exposure to sunlight increases the risk of developing skin cancer and is the major cause of wrinkled, spotty, "old" -appearing skin. It's important to have a healthy and active lifestyle and we encourage this. Some common sense guidelines to keep your skin and eyes safe: • Avoid the hot mid-day sun. Try to schedule your outdoor activities for early morning or early evening. • Make clothing a regular part of protection: o Keep your shirt on o Wear a wide brimmed hat instead of a baseball cap o Wear long sleeves - "rash-guard" or "water'' shirts made from quick drying, breathable material may be most comfortable in hot weather. o "Golf sleeves" can protect your arms and keep you cool in the sun. They can be found in sporting good stores or online. • Be especially careful when on the water, snow or sand as sunlight is reflected upwards from these surfaces. • Don't forget the sunglasses - excess sun exposure causes cataracts. • Encourage your children to practice good sun protection. Early sun damage increases the risk of skin cancer. • Wear a sunscreen that contains specific UVA-blocking ingredients {see below) and an SPF of at least 30. If you are getting sunburns or very tan, you need to 1) use a higher SPF, 2) apply more thickly or reapply more frequently {ideally every 2 hours or more), and/or 3) use a product with better UVA protection.