Survey
* Your assessment is very important for improving the work of artificial intelligence, which forms the content of this project
* Your assessment is very important for improving the work of artificial intelligence, which forms the content of this project
333 Index of Authors and Titles AGUINADALDE, A. See SIM6N-MARfN, R. and GALE, E. A. Size dependence during the development of the amphibian foot. Colchicine-induced digital loss and reduction 177 ALBERCH, P. BARBERA-GUILLEM, E. See SIM6N-MARfN, R. BECK, F. See GUPTA, M. Evidence for specific feedback signals underlying pattern control during vertebrate embryogenesis 95 COOKE, J. DAVIDSON, D. See ELSDALE, T. and DAVIDSON, development 157 ELSDALE, T. D. Somitogenesis in amphibia IV. The dynamics of tail FORD, c. See THOMAS, v. GALE, E. A. See ALBERCH, P. GOETINCK, P. F. See MAUGER, A. GUPTA, M. and BECK, F. Growth of 9-5-day rat embryos in human serum 1 HAUSEN, P. See WINKLBAUER, R. HEASMAN, J. See THOMAS, V. HEDAYAT, I. See MAUGER, A. HEUSNER, w. w. See HO, K. w. HO, K. w., HEUSNER, w. w., VAN HUSS, J. and VAN HUSS, w. D. Postnatal muscle fibre histo- chemistry in the rat 37 KIENY, M. See MAUGER, A. E. Replacement of irradiated epidermis by migration of non-irradiated epidermis in the newt limb: the necessity of healthy epidermis for regeneration 217 LHEUREUX, A test of the predictions of the boundary model regarding supernumerary limb structure 147 MAUGER, A. , KIENY, M. , HEDAYAT, i. and GOETINCK, P. F. Tissue interactions in the organization and maintenance of the muscle pattern in the chick limb 199 MEINHARDT, H. A boundary model for pattern formation in vertebrate limbs 115 MEINHARDT, H. A bootstrap model for the proximodistal pattern formation in vertebrate limbs 139 MERRIAM, R. w. and SAUTERER, R. A. Localization of a pigment-containing structure near the surface of Xenopus eggs which contracts in response to calcium 51 MADEN, M. MORATA, G. See SANCHEZ-HERRERO, E. NAGAJSKI, D. See THOMAS, V. PFANNENSTIEL, H.-D. See SHELTON, P. M. J. PONDER, B. A. j . , WILKINSON, M. M. and WOOD M. H-2 antigens as markers of cellular genotype in chimaeric mice 83 334 Index of Authors and Titles SANCHEZ-HERRERO, E. and MORATA, G. Genetic and developmental characteristics of the homeotic mutation bx1 of Drosophila 251 SAUTERER, R. A. See MERRIAM, R. W. SHELTON, p. M. J., PFANNENSTIEL, H.-D. and WACHMANN, E. Regeneration of the eye margin in Periplaneta americana (Insecta Blattodea) 9 siM6N-MARfN, R., viLANOVA, J. R., AGUINAGALDE, A. and BARBERA-GUILLEM, E. Vascular architecture of the developing spinal cord in the rat: a suggested model 27 STRUHL, G. Role of the esc+ gene product in ensuring the selective expression of segmentspecific homeotic genes in Drosophila 297 THOMAS, v., HEASMAN, J. , FORD, c., NAGAJSKI, D. and WYLIE, c. c. Further analysis of the effect of ultra-violet irradiation on the formation of the germ line in Xenopus laevis 67 VAN HUSS, J. See HO, K. W. VAN HUSS, w. D. See HO, K. W. VILANOVA, J. R. See SIM6N-MARfN, R. WACHMANN, E. See SHELTON, P. M. J. WHITTAKER, J. R. Quantitative regulation of acetylcholinesterase development in the muscle lineage cells of cleavage-arrested ascidian embryos 235 WILKINSON, M. M. See PONDER, B. A. J. WINKLBAUER, R. and HAUSEN, p. Development of the lateral line system in Xenopus laevis. I. Normal development and cell movement in the supraorbital system 265 WINKLBAUER, R. and HAUSEN, p. Development of the lateral line system in Xenopus laevis. II. Cell multiplication and organ formation in the supraorbital system 283 WOOD, M. See PONDER, B. A. J. WYLIE, c. c. See THOMAS, V.