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Third Commission Directive of 27 September 1983 on the approximation of the laws of the Member States relating to methods of analysis necessary for checking the composition of cosmetic products (83/514/EEC)

EU Directive 1983/514 · Adopted 27 September 1983 · Extends to United Kingdom

Original text. legislation.gov.uk does not revise this item, so later amendments are not shown here. Changes made to it are listed under each provision when known.

Third Commission Directive

of 27 September 1983

on the approximation of the laws of the Member States relating to methods of analysis necessary for checking the composition of cosmetic products

(83/514/EEC)

THE COMMISSION OF THE EUROPEAN COMMUNITIES,

Having regard to the Treaty establishing the European Economic Community,

Having regard to Council Directive 76/768/EEC of 27 July 1976 on the approximation of the laws of the Member States relating to cosmetic productsf1, as last amended by Directive 83/341/EECf2, and in particular Article 8 (1) thereof,

Whereas Directive 76/768/EEC provides for the official testing of cosmetic products with the aim of ensuring that the conditions laid down by Community provisions concerning the composition of cosmetic products are satisfied;

Whereas all the necessary methods of analysis should be laid down as quickly as possible; whereas two steps towards the attainment of this objective having already been taken through the definition of certain methods in Commission Directives 80/1335/EECf3 and 82/434/EECf4, the third step is to consist in the definition of methods for the determination of dichloromethane and 1,1,1-trichloroethane, the identification and determination of quinolin-8-ol and bis(8-hydroxyquino-linium) sulphate, the determination of ammonia, the identification and determination of nitromethane, the identification and determination of mercaptoacetic acid in hair-waving, hair-straightening and depilatory products, the identification and determination of hexachlorophene (INN), the tion of tosylchloramide sodium (INN), the determination of total fluorine in dental creams, the identification and determination of organomercury compounds, the determination of alkali and alkaline earth sulphides;

Whereas the measures provided for in this Directive are in accordance with the opinion of the Committee on the Adaptation of Directive 76/768/EEC to Technical Progress,

HAS ADOPTED THIS DIRECTIVE:

Annotations to the whole text

Footnotes

f1

OJ No L 262, 27. 9. 1976, p. 169.

f2

OJ No L 188, 13. 7. 1983, p. 15.

f3

OJ No L 383, 31. 12. 1980, p. 27.

f4

OJ No L 185, 30. 6. 1982, p. 1.

Contents

  1. 1Article 1
  2. 2Article 2
  3. 3Article 3
  4. Signature
  5. Annex: DETERMINATION OF DICHLOROMETHANE AND 1,1,1-TRICHLOROETHANE
  6. 1SCOPE AND FIELD OF APPLICATION
  7. 2DEFINITION
  8. 3PRINCIPLE
  9. 4REAGENTS
  10. 4.1Division 4.1
  11. 4.2Division 4.2
  12. 4.3Division 4.3
  13. 4.4Division 4.4
  14. 4.5Division 4.5
  15. 4.6Division 4.6
  16. APPARATUS
  17. 5.1Division 5.1
  18. 5.2Division 5.2
  19. 5.3Division 5.3
  20. 5.4Division 5.4
  21. PROCEDURE
  22. 6.1Division 6.1
  23. 6.2Pressurized sample: use the sampling method described in the sampling chapter, but with the following refinements:
  24. CHROMATOGRAPHIC CONDITIONS
  25. 7.1Precolumn
  26. 7.2Column
  27. 7.3As examples the following columns yield the results sought:
  28. 8MIXTURE FOR ESTABLISHING THE RESPONSE FACTORS
  29. CALCULATIONS
  30. 9.1Calculating a response factor of a substance ‘p’ relative to a substance ‘a’ selected as an internal standard
  31. 9.2Calculate the % (m/m) of dichloromethane and 1,1,1-trichloroethane present in the sample to be analyzed
  32. 10REPEATABILITY
  33. IDENTIFICATION AND DETERMINATION OF QUINOLIN-8-OL AND BIS(8-HYDROXYQUINOLINIUM) SULPHATE
  34. 1SCOPE AND FIELD OF APPLICATION
  35. 2DEFINITION
  36. PRINCIPLE
  37. 3.1Identification
  38. 3.2Determination
  39. 4REAGENTS
  40. 4.1Division 4.1
  41. 4.2Division 4.2
  42. 4.3Division 4.3
  43. 4.4Division 4.4
  44. 4.5Division 4.5
  45. 4.6Division 4.6
  46. 4.7Division 4.7
  47. 4.8Division 4.8
  48. 4.9Division 4.9
  49. 4.10Division 4.10
  50. 4.11Division 4.11
  51. 4.12Division 4.12
  52. 4.130,1 hydrochloric acid.
  53. 4.15Division 4.15
  54. 4.15.1Division 4.15.1
  55. 4.15.2Division 4.15.2
  56. 4.16Fehling's solution
  57. 4.17Eluting solvents for thin-layer chromatography
  58. 4.18Division 4.18
  59. 4.19Division 4.19
  60. 4.20Division 4.20
  61. 4.21Division 4.21
  62. 4.22Buffer solution, pH 7
  63. 4.23Prepared thin-layer plates
  64. APPARATUS
  65. 5.1Division 5.1
  66. 5.2Division 5.2
  67. 5.3Division 5.3
  68. 5.4Division 5.4
  69. 5.5Division 5.5
  70. 5.6Division 5.6
  71. 5.7Division 5.7
  72. 5.8Division 5.8
  73. 5.9Division 5.9
  74. 5.10Division 5.10
  75. 5.11Division 5.11
  76. 5.12Division 5.12
  77. PROCEDURE
  78. Identification
  79. Liquid samples
  80. 6.1.1.1Division 6.1.1.1
  81. 6.1.1.2Division 6.1.1.2
  82. 6.1.1.3Division 6.1.1.3
  83. 6.1.1.4Division 6.1.1.4
  84. Solid samples or creams
  85. 6.1.2.1Division 6.1.2.1
  86. 6.1.2.2Division 6.1.2.2
  87. Determination
  88. Liquid samples
  89. 6.2.1.1Division 6.2.1.1
  90. 6.2.1.2Division 6.2.1.2
  91. 6.2.1.3Division 6.2.1.3
  92. 6.2.1.4Division 6.2.1.4
  93. Solid samples or creams
  94. 6.2.2.1Division 6.2.2.1
  95. 6.2.2.2Division 6.2.2.2
  96. 6.2.2.3In the case of emulsions that impede further treatment, mix 0,500 g of the sample with 2 g of Celite 545 (4.14) to form a freely flowing powder. Transfer the mixture in small portions into a glass chromatography column (5.12).
  97. 6.2.2.4Division 6.2.2.4
  98. 6.2.2.5Division 6.2.2.5
  99. 6.2.2.6Division 6.2.2.6
  100. 7STANDARD CURVE
  101. CALCULATION
  102. 8.1Liquid samples
  103. 8.2Solid samples or creams
  104. 9REPEATABILITY
  105. DETERMINATION OF AMMONIA
  106. 1SCOPE AND FIELD OF APPLICATION
  107. 2DEFINITION
  108. 3PRINCIPLE
  109. 4REAGENTS
  110. 4.1Division 4.1
  111. 4.2Division 4.2
  112. 4.3Division 4.3
  113. 4.4Division 4.4
  114. 4.5Division 4.5
  115. 4.6Division 4.6
  116. 4.7Division 4.7
  117. APPARATUS
  118. 5.1Division 5.1
  119. 5.2Division 5.2
  120. 5.3Division 5.3
  121. 5.4Division 5.4
  122. 5.5Division 5.5
  123. PROCEDURE
  124. 6.1Division 6.1
  125. 6.2Division 6.2
  126. 6.3Division 6.3
  127. 6.4Division 6.4
  128. 6.5Division 6.5
  129. 6.6Division 6.6
  130. 6.7Division 6.7
  131. Division
  132. CALCULATIONS
  133. 7.1Calculation in the case of back titration
  134. 7.2Calculation in the case of direct potentiometric titration
  135. 8REPEATABILIT Y
  136. IDENTIFICATION AND DETERMINATION OF NITROMETHANE
  137. 1SCOPE AND FIELD OF APPLICATION
  138. 2DEFINITION
  139. 3PRINCIPLE
  140. IDENTIFICATION
  141. 4.1Reagents
  142. 4.1.1Division 4.1.1
  143. 4.1.2Folin's reagent
  144. 4.2Procedure
  145. DETERMINATION
  146. 5.1Reagents
  147. 5.1.1Division 5.1.1
  148. 5.1.2Division 5.1.2
  149. 5.1.3Division 5.1.3
  150. 5.1.4Division 5.1.4
  151. 5.1.5Chloroform reference solution
  152. 5.1.62,4-dimethylheptane reference solution
  153. Apparatus
  154. 5.2.1Division 5.2.1
  155. 5.2.2Division 5.2.2
  156. 5.2.3Division 5.2.3
  157. Procedure
  158. 5.3.1Preparation of the sample
  159. 5.3.2Preparation of the standard
  160. Gas chromatographic conditions
  161. 5.3.3.1Column
  162. 5.3.3.2Detector
  163. 5.3.3.3Temperature conditions
  164. 5.3.3.4Suitable gas supplies
  165. CALCULATIONS
  166. 6.1Response factor of nitromethane, calculated with reference to the internal standard used
  167. 6.2Concentration of nkromethane in the sample
  168. 7REPEATABILITY
  169. IDENTIFICATION AND DETERMINATION OF MERCAPTOACETIC ACID IN HAIR-WAVING, HAIR-STRAIGHTENING AND DEPILATORY PRODUCTS
  170. 1SCOPE AND FIELD OF APPLICATION
  171. 2DEFINITION
  172. 3PRINCIPLE
  173. IDENTIFICATION
  174. Identification by spot tests
  175. 4.1.1Reagents
  176. 4.1.1.1Division 4.1.1.1
  177. 4.1.1.2Division 4.1.1.2
  178. Procedure
  179. 4.1.2.1Identification of mercaptoacetic acid by means of a colour reaction with lead di(acetate)
  180. 4.1.2.2Characterization of inorganic sulphides by the formulation of hydrogen sulphide on acidification
  181. 4.1.2.3Characterization of sulphites by the formation of sulphur dioxide upon acidification
  182. Identification by thin-layer chromatography
  183. 4.2.1Reagents
  184. 4.2.1.1Division 4.2.1.1
  185. 4.2.1.2Division 4.2.1.2
  186. 4.2.1.3Division 4.2.1.3
  187. 4.2.1.4Division 4.2.1.4
  188. 4.2.1.5Division 4.2.1.5
  189. 4.2.1.6Division 4.2.1.6
  190. 4.2.1.7Division 4.2.1.7
  191. 4.2.1.8Division 4.2.1.8
  192. 4.2.1.9Division 4.2.1.9
  193. 4.2.1.10Division 4.2.1.10
  194. 4.2.1.11Division 4.2.1.11
  195. 4.2.1.12Division 4.2.1.12
  196. 4.2.1.13Division 4.2.1.13
  197. 4.2.1.14Division 4.2.1.14
  198. 4.2.1.15Division 4.2.1.15
  199. Eluting solvents
  200. 4.2.1.16.1Division 4.2.1.16.1
  201. 4.2.1.16.2Division 4.2.1.16.2
  202. Detection reagents
  203. 4.2.1.17.1Division 4.2.1.17.1
  204. 4.2.1.17.2Bromine solution 5 % (m/v):
  205. 4.2.1.17.3Fluorescein solution, 0,1 % (m/v):
  206. 4.2.1.17.4Division 4.2.1.17.4
  207. Reference solutions
  208. 4.2.1.18.1Division 4.2.1.18.1
  209. 4.2.1.18.2Division 4.2.1.18.2
  210. 4.2.1.18.3Division 4.2.1.18.3
  211. 4.2.1.18.4Division 4.2.1.18.4
  212. 4.2.1.18.5Division 4.2.1.18.5
  213. 4.2.2Apparatus
  214. Procedure
  215. 4.2.3.1Treatment of samples
  216. 4.2.3.2Elution
  217. 4.2.3.3Detection
  218. 4.2.3.4Interpretation
  219. 5DETERMINATION (see NB)
  220. lodometry
  221. 5.1.1Principle
  222. 5.1.2Reagents
  223. Division
  224. 5.1.3Apparatus
  225. 5.1.4Procedure
  226. 5.1.5Calculation
  227. 5.1.6Remarks
  228. Gas chromatograyhy
  229. 5.2.1Principle
  230. 5.2.2Reagents
  231. 5.2.2.1Division 5.2.2.1
  232. 5.2.2.2Division 5.2.2.2
  233. 5.2.2.3Division 5.2.2.3
  234. 5.2.2.4Division 5.2.2.4
  235. 5.2.2.5Division 5.2.2.5
  236. 5.2.2.6Acetate buffer solution (pH 5):
  237. 5.2.2.7Division 5.2.2.7
  238. 5.2.2.8Division 5.2.2.8
  239. 5.2.2.9Division 5.2.2.9
  240. 5.2.2.10Division 5.2.2.10
  241. 5.2.2.11Division 5.2.2.11
  242. 5.2.2.12Diazomethane solution prepared from iV-methyl-AT-nitrosotoluen-4-sulfonamide (Fieser, Reagents for Organic Synthesis (Wiley), 1967)
  243. Apparatus
  244. 5.2.3.1Division 5.2.3.1
  245. 5.2.3.2Division 5.2.3.2
  246. 5.2.3.3Division 5.2.3.3
  247. 5.2.4Preparation of the sample
  248. 5.2.5Methylation
  249. 5.2.5.1Methylation in situ
  250. 5.2.5.2Methylation with the previously prepared diazomethane solution
  251. 5.2.6Preparation of the standard
  252. Gas chromatographic conditions
  253. 5.2.7.1Column
  254. 5.2.7.2Packing
  255. 5.2.7.3Detector
  256. 5.2.7.4Gas supplies
  257. 5.2.7.5Temperature conditions
  258. 5.2.7.6Recorder chart speed
  259. 5.2.7.7Quantity injected
  260. 5.2.7.8The conditions of chromatography are given as a guide. They permit the achievement of a resolution ‘R’ equal to, or better than, 1,5, where:
  261. Calculations
  262. 5.2.8.1Coefficient of proportionality for mercaptoacetic acid
  263. 5.2.8.2Concentration of mercaptoacetic acid present in the sample
  264. 6REPEATABILITY
  265. IDENTIFICATION AND DETERMINATION OF HEXACHLOROPHENE
  266. IDENTIFICATION
  267. 1SCOPE AND FIELD OF APPLICATION
  268. 2PRINCIPLE
  269. 3REAGENTS
  270. 3.1Division 3.1
  271. 3.2Division 3.2
  272. 3.3Division 3.3
  273. 3.4Division 3.4
  274. 3.5Visualizing agent I:
  275. 3.6Visualizing agent II:
  276. 3.7Reference solution:
  277. APPARATUS
  278. 4.1Division 4.1
  279. 4.2Division 4.2
  280. 4.3Division 4.3
  281. PREPARATION OF THE TEST SAMPLE
  282. 5.1Division 5.1
  283. 5.2Division 5.2
  284. 5.3Division 5.3
  285. 5.4Division 5.4
  286. 5.5Division 5.5
  287. 5.6Division 5.6
  288. PROCEDURE
  289. 6.1Division 6.1
  290. 6.2Division 6.2
  291. 6.3Division 6.3
  292. 6.4Division 6.4
  293. 6.5Visualization
  294. 6.5.1Division 6.5.1
  295. 6.5.2Division 6.5.2
  296. INTERPRETATION
  297. 7.1Visualizing agent I (3.5):
  298. 7.2Visualizing agent II (3.6):
  299. DETERMINATION
  300. 1SCOPE AND FIELD OF APPLICATION
  301. 2DEFINITION
  302. 3PRINCIPLE
  303. 4REAGENTS
  304. 4.1Division 4.1
  305. 4.2Division 4.2
  306. 4.3Division 4.3
  307. 4.4Division 4.4
  308. 4.5Division 4.5
  309. 4.6Division 4.6
  310. 4.7Division 4.7
  311. 4.8Division 4.8
  312. 4.9Division 4.9
  313. 4.10Division 4.10
  314. 4.11Division 4.11
  315. 4.12Division 4.12
  316. 4.13Division 4.13
  317. 4.14Division 4.14
  318. 4.15Division 4.15
  319. 4.16Division 4.16
  320. APPARATUS
  321. 5.1Division 5.1
  322. 5.2Division 5.2
  323. 5.3Division 5.3
  324. PROCEDURE
  325. 6.1Preparation of the standard solution
  326. 6.1.1Division 6.1.1
  327. 6.1.2Division 6.1.2
  328. 6.2Preparation of the sample
  329. 6.3Methylation of the sample
  330. 6.4Methylation of the standard
  331. 7GAS CHROMATOGRAPHY
  332. CALCULATION
  333. 8.1Proportionality coefficient of hexachlorophene
  334. 8.2The amount of hexachlorophene in the sample
  335. 9REPEATABILITY
  336. (CHLORAMINE-T)
  337. 1SCOPE AND FIELD OF APPLICATION
  338. 2DEFINITION
  339. 3PRINCIPLE
  340. 4REAGENTS
  341. 4.1Division 4.1
  342. 4.2Division 4.2
  343. 4.3Division 4.3
  344. 4.4Division 4.4
  345. 4.5Division 4.5
  346. Development solvent
  347. 4.6.1Division 4.6.1
  348. 4.6.2Division 4.6.2
  349. 4.7Division 4.7
  350. 4.8Division 4.8
  351. 4.9Division 4.9
  352. 4.10Division 4.10
  353. APPARATUS
  354. 5.1Division 5.1
  355. 5.2Division 5.2
  356. 5.3Division 5.3
  357. PROCEDURE
  358. 6.1Hydrolysis
  359. Extraction
  360. 6.2.1Division 6.2.1
  361. 6.2.2Division 6.2.2
  362. Thin-layer chromatography
  363. 6.3.1Spot 20 μl of the ethanolic residue (6.2) on to a thin-layer chromatography plate (4.7).
  364. 6.3.2Division 6.3.2
  365. 6.3.3Division 6.3.3
  366. 6.4Measurement
  367. 6.5Plotting the calibration curves
  368. 7NOTE
  369. 8CALCULATION
  370. 9REPEATABILITY
  371. DETERMINATION OF TOTAL FLUORINE IN DENTAL CREAMS
  372. 1SCOPE AND FIELD OF APPLICATION
  373. 2DEFINITION
  374. 3PRINCIPLE
  375. 4REAGENTS
  376. 4.1Division 4.1
  377. 4.2Division 4.2
  378. 4.3Division 4.3
  379. 4.4Division 4.4
  380. 4.5Division 4.5
  381. 4.6Division 4.6
  382. Fluorine standard solutions
  383. 4.7.1Division 4.7.1
  384. 4.7.2Division 4.7.2
  385. 4.8Internal standard solution
  386. 4.9Chlorotriethylsilane/internal standard solution
  387. 4.10Division 4.10
  388. 4.11Division 4.11
  389. APPARATUS
  390. 5.1Division 5.1
  391. 5.2Division 5.2
  392. 5.3Division 5.3
  393. 5.4Division 5.4
  394. 5.5Division 5.5
  395. 5.6Division 5.6
  396. 5.7Division 5.7
  397. 5.8Division 5.8
  398. PROCEDURE
  399. Sample analysis
  400. 6.1.1Division 6.1.1
  401. 6.1.2Division 6.1.2
  402. 6.1.3Division 6.1.3
  403. 6.1.4Division 6.1.4
  404. 6.1.5Division 6.1.5
  405. 6.1.6Division 6.1.6
  406. Centrifuge 10 minutes at such a speed as to produce a clear separation of the phases, uncap the tube, withdraw the organic layer and inject 3 μl of the organic phase on to the column of the gas chromatograph (5.2).
  407. Remark:
  408. 6.1.8Division 6.1.8
  409. 6.1.9Division 6.1.9
  410. Chromatographic conditions
  411. 6.2.1Column: stainless steel.
  412. Calibration graph
  413. 6.3.1Division 6.3.1
  414. 6.3.2Division 6.3.2
  415. 6.3.3Division 6.3.3
  416. 6.3.4Division 6.3.4
  417. 6.3.5Division 6.3.5
  418. 7CALCULATION
  419. 8REPEATABILITY
  420. IDENTIFICATION AND DETERMINATION OF ORGANOMERCURY COMPOUNDS
  421. SCOPE AND FIELD OF APPLICATION
  422. IDENTIFICATION
  423. 1PRINCIPLE
  424. 2REAGENTS
  425. 2.1Division 2.1
  426. 2.2Division 2.2
  427. 2.3Division 2.3
  428. 2.4Division 2.4
  429. 2.5Division 2.5
  430. 2.6Standard solution, 0,001 % in water of:
  431. 2.7Division 2.7
  432. 2.8Division 2.8
  433. APPARATUS
  434. 3.1Division 3.1
  435. 3.2Division 3.2
  436. 3.3Division 3.3
  437. PROCEDURE
  438. Extraction
  439. 4.1.1Division 4.1.1
  440. 4.1.2Division 4.1.2
  441. 4.1.3Division 4.1.3
  442. 4.1.4Division 4.1.4
  443. 4.1.5Division 4.1.5
  444. 4.1.6Division 4.1.6
  445. Separatum and identification
  446. 4.2.1Division 4.2.1
  447. 4.2.2Place the plate in the solvent (2.5) and allow the latter to rise 150 mm. The organomercury compounds appear as coloured spots whose colour is stable, provided the plate is covered by a glass plate immediately the solvent evaporates.
  448. DETERMINATION
  449. 1DEFINITION
  450. 2PRINCIPLE
  451. 3REAGENTS
  452. 3.1Division 3.1
  453. 3.2Division 3.2
  454. 3.3Division 3.3
  455. 3.4Division 3.4
  456. 3.5Division 3.5
  457. 3.6Division 3.6
  458. 3.7Division 3.7
  459. 3.8Division 3.8
  460. 3.9Division 3.9
  461. APPARATUS
  462. 4.1Division 4.1
  463. 4.2Division 4.2
  464. 5PROCEDURE
  465. Breakdown
  466. 5.1.1Division 5.1.1
  467. 5.1.2Division 5.1.2
  468. 5.1.3Division 5.1.3
  469. 5.1.4Division 5.1.4
  470. 5.1.5Division 5.1.5
  471. 5.1.6Division 5.1.6
  472. Determination
  473. 5.2.1Division 5.2.1
  474. 5.2.2Division 5.2.2
  475. 6CALCULATION
  476. NOTES
  477. 7.1Division 7.1
  478. 7.2Division 7.2
  479. 8REPEATIBILITY
  480. DETERMINATION OF ALKALI AND ALKALINE EARTH SULPHIDES
  481. 1SCOPE AND FIELD OF APPLICATION
  482. 2DEFINITION
  483. 3PRINCIPLE
  484. 4REAGENTS
  485. 4.1Division 4.1
  486. 4.2Division 4.2
  487. 4.3Division 4.3
  488. 4.4Division 4.4
  489. 4.5Division 4.5
  490. 4.6Division 4.6
  491. 4.7Division 4.7
  492. 4.8Division 4.8
  493. 4.9Division 4.9
  494. APPARATUS
  495. 5.1Usual laboratory equipment.
  496. PROCEDURE
  497. Entrainment of the sulphides
  498. 6.1.1Division 6.1.1
  499. 6.1.2Division 6.1.2
  500. Fit a dropping funnel, the dip tube and the outlet tube on to the round-bottom flask (5.2). Connect the outlet tube to the conical flasks (5.3) set up in series by means of PVC tubing.
  501. Division
  502. 6.1.4Division 6.1.4
  503. 6.1.5Division 6.1.5
  504. 6.1.6Division 6.1.6
  505. 6.1.7Division 6.1.7
  506. 6.1.8Division 6.1.8
  507. Titration
  508. 6.2.1Division 6.2.1
  509. 6.2.2Division 6.2.2
  510. 6.2.3Division 6.2.3
  511. 6.2.4Division 6.2.4
  512. 6.2.5Division 6.2.5
  513. 7CALCULATON
  514. 8REPEATABILITY