Наука 2013

110
Ȼɢɨɥɨɝɢɹ 3 ȻɂɈɅɈȽɂə ɍȾɄ 581.557.24:631.445.4 ɘ. Ⱥ. ȻȺɏȺɊ ȼɅɂəɇɂȿ ɎɍɇȽɂɐɂȾȺ «ɎɍɇȾȺɁɈɅ» ɇȺ ɋɌȿɉȿɇɖ ɆɂɄɈɊɂɁȺɐɂɂ ɄɈɊɇȿɃ CLEMATIS TANGUTICA KORSH Ɋɚɫɫɦɨɬɪɟɧɵ ɦɨɪɮɨɥɨɝɢɱɟɫɤɢɟ ɨɫɨɛɟɧɧɨɫɬɢ ɪɚɡɜɢɬɢɹ ɚɪɛɭɫɤɭɥɹɪɧɵɯ ɦɢɤɨɪɢɡɧɵɯ ɝɪɢɛɨɜ (ȺɆȽ) ɜ ɤɨɪɧɹɯ Clematis tangutica. ɉɪɢ ɦɢɤɪɨɫɤɨɩɢɪɨɜɚɧɢɢ ɤɨɪɧɟɣ ɧɚɣɞɟɧɵ ɜɫɟ ɫɬɪɭɤɬɭɪɵ ɚɪɛɭɫɤɭɥɹɪɧɨɣ ɦɢɤɨɪɢɡɵ (ȺɆ). ȼ ɤɨɪɧɹɯ ɪɚɫɬɟɧɢɹ ɜɵɹɜɥɟ- ɧɵ ɚɪɛɭɫɤɭɥɵ ɧɚ ɪɚɡɧɵɯ ɫɬɚɞɢɹɯ ɪɚɡɜɢɬɢɹ: ɦɨɥɨɞɵɟ, ɡɪɟɥɵɟ, ɜɵɪɨɠɞɚɸɳɢɟɫɹ; ɜɟɡɢɤɭɥɵ ɪɚɡɧɨɣ ɮɨɪɦɵ; ɝɢɮɵ ɜɧɭɬɪɢ ɤɥɟɬɨɤ, ɜ ɦɟɠɤɥɟɬɨɱɧɢɤɚɯ ɢ ɫɧɚɪɭɠɢ ɤɨɪɧɹ. ɍɫɬɚɧɨɜɥɟɧɨ, ɱɬɨ ɮɭɧɝɢɰɢɞ «Ɏɭɧɞɚɡɨɥ» ɨɤɚɡɵɜɚɟɬ ɢɧɝɢɛɢɪɭɸɳɟɟ ɞɟɣɫɬɜɢɟ ɧɚ ɫɩɨɧɬɚɧɧɭɸ ɦɢɤɨɪɢɡɚɰɢɸ ɤɨɪɧɟɣ Clematis tangutica, ɩɪɢɱɟɦ ɩɨɫɥɟ ɜɧɟɫɟɧɢɹ ɞɚɧɧɨɝɨ ɩɪɟɩɚɪɚɬɚ ɩɭɬɟɦ ɨɩɪɵɫɤɢɜɚɧɢɹ ɪɚɫɬɟɧɢɣ ɭɝɧɟɬɟɧɢɟ ȺɆȽ ɛɵɥɨ ɦɟɧɶɲɟ, ɱɟɦ ɩɨɫɥɟ ɩɨɥɢɜɚ. ɂɫɫɥɟɞɭɟɦɵɣ ɮɭɧɝɢɰɢɞ ɬɚɤɠɟ ɭɝɧɟɬɚɥ ɪɨɫɬ ɢ ɪɚɡɜɢɬɢɟ Clematis tangutica. Ⱥɪɛɭɫɤɭɥɹɪɧɚɹ ɦɢɤɨɪɢɡɚ (ȺɆ) – ɷɬɨ ɧɚɢɛɨɥɟɟ ɲɢɪɨɤɨɪɚɫɩɪɨɫɬɪɚɧɟɧɧɚɹ ɢ ɷɤɨɥɨɝɢɱɟɫɤɢ ɡɧɚɱɢɦɚɹ ɮɨɪɦɚ ɪɚɫɬɢɬɟɥɶɧɨɦɢɤɪɨɛɧɵɯ ɜɡɚɢɦɨɞɟɣɫɬɜɢɣ. ȼ ɦɢɤɨɪɢɡɟ ɝɪɢɛ ɩɨɥɭɱɚɟɬ ɨɬ ɤɨɪɧɟɣ ɭɝɥɟɜɨɞɵ ɢ ɫɧɚɛɠɚɟɬ ɪɚɫɬɟɧɢɟ ɜɨɞɨɣ ɢ ɦɢɧɟɪɚɥɶɧɵɦɢ ɷɥɟɦɟɧɬɚɦɢ ɩɢɬɚɧɢɹ. ȼ ɟɟ ɨɛɪɚɡɨɜɚɧɢɢ ɭɱɚɫɬɜɭɸɬ ɝɪɢɛɵ ɬɢɩɚ Glomeromycota ɢ ɩɨ ɪɚɡ- ɧɵɦ ɨɰɟɧɤɚɦ 75-90% ɧɚɡɟɦɧɵɯ ɪɚɫɬɟɧɢɣ. ȼɫɥɟɞɫɬɜɢɟ ɫɜɨɟɣ ɜɵɫɨɤɨɣ ɚɞɚɩɬɢɜɧɨɣ ɫɩɨɫɨɛɧɨɫɬɢ ȺɆ ɪɚɫɩɪɨɫɬɪɚ- ɧɟɧɚ ɨɬ ɚɥɶɩɢɣɫɤɨɣ ɢ ɩɨɥɹɪɧɨɣ ɡɨɧ ɞɨ ɬɪɨɩɢɱɟɫɤɢɯ ɥɟɫɨɜ ɢ ɫɚɜɚɧɧ. ɋɱɢɬɚɟɬɫɹ, ɱɬɨ ɨɧɚ ɹɜɥɹɟɬɫɹ ɢɫɬɨɱɧɢɤɨɦ ɛɢɨɪɚɡɧɨɨɛɪɚɡɢɹ ɮɢɬɨɰɟɧɨɡɨɜ. ȺɆɝɪɢɛɵ ɢɝɪɚɸɬ ɜɟɞɭɳɭɸ ɪɨɥɶ ɜ ɥɭɝɨɜɵɯ, ɫɬɟɩɧɵɯ, ɩɭɫɬɵɧɧɵɯ ɢ ɝɨɪɧɵɯ ɛɢɨ- ɝɟɨɰɟɧɨɡɚɯ, ɢɫɤɥɸɱɚɹ ɥɟɫɧɵɟ ɪɚɣɨɧɵ. Ɇɢɤɨɪɢɡɚ ɷɬɨ ɫɚɦɵɣ ɦɨɳɧɵɣ «ɧɚɫɨɫ» ɞɥɹ ɪɚɫɬɟɧɢɣ; ɨɧɚ ɧɟ ɬɨɥɶɤɨ ɩɨ- ɞɚɺɬ ɢɦ ɜɨɞɭ ɢɡ ɝɥɭɛɢɧɧɵɯ ɫɥɨɟɜ ɩɨɱɜɵ, ɧɨ ɟɳɺ ɢ ɩɢɬɚɟɬ ɪɚɫɬɟɧɢɹ. ɉɨɬɨɦɭ ɱɬɨ ɦɢɤɨɪɢɡɚ ɝɪɢɛɚ ɨɱɟɧɶ ɬɟɫɧɨ ɫɜɹɡɚɧɚ ɫ ɤɨɪɧɟɦ ɪɚɫɬɟɧɢɹ, ɨɧɚ ɤɚɤ ɛɵ «ɩɪɨɞɨɥɠɟɧɢɟ» ɤɨɪɧɹ ɩɪɚɤɬɢɱɟɫɤɢ, ɷɬɨ ɨɞɧɨ ɰɟɥɨɟ. Ɂɚ ɫɱɟɬ ɦɢɤɨɪɢɡɵ ɤɨɪɧɟɜɨɟ ɩɢɬɚɧɢɟ ɪɚɫɬɟɧɢɣ ɭɫɢɥɢɜɚɟɬɫɹ ɜ 15 ɪɚɡ. Ʉɪɨɦɟ ɜɨɞɵ, ɝɪɢɛɵ ɩɨɫɪɟɞɫɬɜɨɦ ɦɢɤɨɪɢɡɵ ɫɧɚɛɠɚɸɬ ɪɚɫɬɟ- ɧɢɹ ɜɫɟɦ ɧɟɨɛɯɨɞɢɦɵɦ ɜ ɩɢɬɚɧɢɢ: ɦɢɧɟɪɚɥɚɦɢ, ɜɢɬɚɦɢɧɚɦɢ, ɮɟɪɦɟɧɬɚɦɢ, ɛɢɨɫɬɢɦɭɥɹɬɨɪɚɦɢ, ɝɨɪɦɨɧɚɦɢ ɢ ɞɪɭɝɢɦɢ ɚɤɬɢɜɧɵɦɢ ɜɟɳɟɫɬɜɚɦɢ, ɨɫɨɛɨɟ ɡɧɚɱɟɧɢɟ ɜ ɩɢɬɚɧɢɢ ɪɚɫɬɟɧɢɣ ɩɪɢɨɛɪɟɬɚɟɬ ɩɨɫɬɭɩɥɟɧɢɟ ɬɚɤɢɯ ɯɢɦɢɱɟ- ɫɤɢɯ ɷɥɟɦɟɧɬɨɜ ɤɚɤ ɮɨɫɮɨɪ ɢ ɤɚɥɢɣ [1]. Ʉɥɟɦɚɬɢɫɵ (Clematis tangutica Korsh.) í ɨɞɧɢ ɢɡ ɧɟɦɧɨɝɢɯ ɜɵɫɨɤɨɞɟɤɨɪɚɬɢɜɧɵɯ ɥɢɚɧ, ɤɨɬɨɪɵɟ ɦɨɠɧɨ ɭɫ- ɩɟɲɧɨ ɤɭɥɶɬɢɜɢɪɨɜɚɬɶ ɜ ɚɝɪɨɤɥɢɦɚɬɢɱɟɫɤɢɯ ɭɫɥɨɜɢɹɯ Ȼɟɥɚɪɭɫɢ. Ɉɧɢ ɹɜɥɹɸɬɫɹ ɩɟɪɫɩɟɤɬɢɜɧɵɦɢ ɪɚɫɬɟɧɢɹɦɢ ɞɥɹ ɡɟɥɟɧɨɝɨ ɝɪɚɞɨɫɬɪɨɢɬɟɥɶɫɬɜɚ, ɬɚɤ ɤɚɤ ɨɛɥɚɞɚɸɬ ɜɵɫɨɤɨɣ ɫɤɨɪɨɫɬɶɸ ɪɨɫɬɚ, ɛɨɥɶɲɨɣ ɡɟɥɟɧɨɣ ɦɚɫɫɨɣ ɢ ɞɟɤɨ- ɪɚɬɢɜɧɨɫɬɶɸ [2; 3]. ɂɡɡɚ ɱɚɫɬɨɣ ɩɨɞɜɟɪɠɟɧɧɨɫɬɢ ɤɥɟɦɚɬɢɫɨɜ ɡɚɛɨɥɟɜɚɧɢɹɦ, ɜɨɡɛɭɞɢɬɟɥɹɦɢ ɤɨɬɨɪɵɯ ɹɜɥɹɸɬɫɹ ɮɢɬɨɩɚɬɨɝɟɧɧɵɟ ɝɪɢɛɵ, ɩɪɢ ɢɯ ɜɵɪɚɳɢɜɚɧɢɢ ɪɟɤɨɦɟɧɞɭɟɬɫɹ ɢɫɩɨɥɶɡɨɜɚɬɶ ɮɭɧɝɢɰɢɞ «Ɏɭɧɞɚɡɨɥ» [4]. «Ɏɭɧɞɚ- ɡɨɥ» – ɮɭɧɝɢɰɢɞ ɫɢɫɬɟɦɧɨɝɨ ɞɟɣɫɬɜɢɹ ɫ ɞɥɢɬɟɥɶɧɵɦ ɡɚɳɢɬɧɵɦ ɷɮɮɟɤɬɨɦ (15 – 20 ɞɧɟɣ), ɢɡ ɝɪɭɩɩɵ ɩɪɨɢɡɜɨɞ- ɧɵɯ ɛɟɧɡɢɦɢɞɚɡɨɥɚ. Ⱦɚɧɧɵɣ ɩɪɟɩɚɪɚɬ ɲɢɪɨɤɨ ɢɫɩɨɥɶɡɭɟɬɫɹ ɜ ɪɚɫɬɟɧɢɟɜɨɞɫɬɜɟ ɢ ɞɨɦɚɲɧɟɦ ɯɨɡɹɣɫɬɜɟ. ɉɪɚɤɬɢ- ɤɚ ɩɪɢɦɟɧɟɧɢɹ ɮɭɧɝɢɰɢɞɚ «Ɏɭɧɞɚɡɨɥ» ɩɪɢ ɜɵɪɚɳɢɜɚɧɢɢ ɤɥɟɦɚɬɢɫɨɜ ɩɨɤɚɡɚɥɚ ɟɝɨ ɢɧɝɢɛɢɪɭɸɳɟɟ ɞɟɣɫɬɜɢɟ ɧɚ ɪɨɫɬ ɢ ɪɚɡɜɢɬɢɟ ɪɚɫɬɟɧɢɣ. ȼɨɡɦɨɠɧɨ, ɞɚɧɧɵɣ ɢɧɝɢɛɢɪɭɸɳɢɣ ɷɮɮɟɤɬ ɜɵɡɜɚɧ ɩɨɞɚɜɥɟɧɢɟɦ ɮɭɧɝɢɰɢɞɨɦ ɧɟ ɬɨɥɶ- ɤɨ ɮɢɬɨɩɚɬɨɝɟɧɧɵɯ, ɧɨ ɢ ɚɪɛɭɫɤɭɥɹɪɧɵɯ ɦɢɤɨɪɢɡɧɵɯ ɝɪɢɛɨɜ, ɤɨɬɨɪɵɟ ɩɨɥɨɠɢɬɟɥɶɧɨ ɜɥɢɹɸɬ ɧɚ ɪɚɡɜɢɬɢɟ ɪɚɫ- ɬɟɧɢɣ. ȼ ɫɜɹɡɢ ɫ ɷɬɢɦ, ɚɤɬɭɚɥɶɧɵɦ ɹɜɥɹɟɬɫɹ ɢɫɫɥɟɞɨɜɚɧɢɟ ɜɥɢɹɧɢɹ ɲɢɪɨɤɨ ɢɫɩɨɥɶɡɭɟɦɵɯ ɮɭɧɝɢɰɢɞɨɜ ɧɚ ɫɬɟ- ɩɟɧɶ ɦɢɤɨɪɢɡɚɰɢɢ ɤɨɪɧɟɣ ɪɚɫɬɟɧɢɣ. ɐɟɥɶ ɪɚɛɨɬɵ ɢɡɭɱɟɧɢɟ ɦɨɪɮɨɥɨɝɢɱɟɫɤɢɯ ɨɫɨɛɟɧɧɨɫɬɟɣ ɪɚɡɜɢɬɢɹ ɦɢɤɨɪɢɡɵ ɧɚ ɤɨɪɧɹɯ Clematis tangutica Korsh. ɢ ɜɥɢɹɧɢɹ ɮɭɧɝɢɰɢɞɚ «Ɏɭɧɞɚɡɨɥ» ɧɚ ɱɚɫɬɨɬɭ ɜɫɬɪɟɱɚɟɦɨɫɬɢ ɜ ɧɢɯ ɚɪɛɭɫɤɭɥɹɪɧɵɯ ɦɢɤɨɪɢɡɧɵɯ ɝɪɢɛɨɜ. Ɇɚɬɟɪɢɚɥɵ ɢ ɦɟɬɨɞɵ. ɂɫɫɥɟɞɨɜɚɧɢɹ ɩɪɨɜɨɞɢɥɢɫɶ ɜ ɭɫɥɨɜɢɹɯ ɡɚɤɪɵɬɨɝɨ ɝɪɭɧɬɚ. ɋɟɦɟɧɚ ɋ. tangutica ɜɵɫɟɜɚɥɢɫɶ ɜɨ ɜɬɨɪɨɣ ɞɟɤɚɞɟ ɞɟɤɚɛɪɹ 2012 ɝɨɞɚ . ɋɬɪɚɬɢɮɢɤɚɰɢɹ ɩɨɫɟɜɨɜ ɩɪɨɜɨɞɢɥɚɫɶ ɩɪɢ ɬɟɦɩɟɪɚɬɭɪɟ 5–7 ºɋ, ɜ ɬɟɱɟɧɢɟ 3 ɧɟɞɟɥɶ. ȼɫɯɨɞɵ ɛɵɥɢ ɪɚɫɩɢɤɢɪɨɜɚɧɵ ɜ ɟɦɤɨɫɬɢ ɨɛɴɟɦɨɦ ɩɨ 100 ɦɥ, ɩɨ 3 ɲɬ . ɜ ɤɚɠɞɭɸ. ȼ ɤɚɱɟɫɬɜɟ ɫɭɛɫɬɪɚɬɚ ɢɫɩɨɥɶɡɨɜɚɥɢ ɩɟɫ- ɱɚɧɭɸ ɩɨɱɜɭ . Ɋɚɫɬɟɧɢɹ ɨɛɪɚɛɚɬɵɜɚɥɢɫɶ ɩɪɟɩɚɪɚɬɨɦ «Ɏɭɧɞɚɡɨɥ». Ɋɚɛɨɱɢɣ ɪɚɫɬɜɨɪ ɝɨɬɨɜɢɥɢ ɫɥɟɞɭɸɳɢɦ ɨɛɪɚɡɨɦ: 1 ɝ ɩɪɟɩɚɪɚɬɚ ɪɚɫɬɜɨɪɹɥɢ ɜ 20 ɦɥ ɜɨɞɵ ɢ ɞɨɜɨɞɢɥɢ ɨɛɴɟɦ ɪɚɫɬɜɨɪɚ ɞɨ 1 ɥɢɬɪɚ . ɉɨɥɭɱɟɧɧɵɦ ɪɚɫɬɜɨɪɨɦ ɩɪɨɥɢɜɚɥɢ ɩɨɱɜɭ ɢ ɨɩɪɵɫɤɢɜɚɥɢ ɪɚɫɬɟɧɢɹ. ȼ ɤɚɱɟɫɬɜɟ ɤɨɧɬɪɨɥɹ ɛɪɚɥɢ ɤɥɟɦɚɬɢɫɵ ɛɟɡ ɨɛɪɚɛɨɬɤɢ ɮɭɧɝɢɰɢɞɨɦ. ȼɚɪɢɚɧɬɵ ɨɩɵɬɚ: 1) Clematis tangutica ɛɟɡ ɨɛɪɚɛɨɬɤɢ ɩɪɟɩɚɪɚɬɨɦ «Ɏɭɧɞɚɡɨɥ» (ɤɨɧɬɪɨɥɶ); 2) Clematis tangutica + ɨɩɪɵɫɤɢɜɚɧɢɟ ɪɚɫɬɟɧɢɣ ɩɪɟɩɚɪɚɬɨɦ ©Ɏɭɧɞɚɡɨɥ»; 3) Clematis tangutica + ɩɨɥɢɜ ɪɚɫɬɟɧɢɣ ɩɪɟɩɚɪɚɬɨɦ «Ɏɭɧɞɚɡɨɥ». ɑɟɪɟɡ ɦɟɫɹɰ ɩɪɨɜɨɞɢɥɢ ɭɱɟɬ ɨɩɵɬɚ, ɢɡɦɟ- ɪɹɥɢ ɫɭɦɦɚɪɧɵɣ ɩɪɢɪɨɫɬ ɩɨɛɟɝɨɜ, ɫɭɦɦɚɪɧɨɟ ɱɢɫɥɨ ɩɚɪ ɥɢɫɬɶɟɜ ɢ ɱɚɫɬɨɬɭ ɜɫɬɪɟɱɚɟɦɨɫɬɢ ɦɢɤɨɪɢɡɧɨɣ ɢɧɮɟɤɰɢɢ ɜ ɤɨɪ- ɧɹɯ ɤɥɟɦɚɬɢɫɚ. Ɉɰɟɧɤɚ ɱɚɫɬɨɬɵ ɜɫɬɪɟɱɚɟɦɨɫɬɢ ɦɢɤɨɪɢɡɵ ɜ ɤɨɪɧɹɯ ɤɥɟɦɚɬɢɫɚ ɩɪɨɜɨɞɢɥɢ ɩɨ ɦɟɬɨɞɢɤɟ , ɢɡɥɨɠɟɧɧɨɣ ɜ ɪɭɤɨɜɨɞɫɬɜɟ ɇɆ. Ʌɚɛɬɨɜɨɣ ɩɨ ɦɨɞɢɮɢɰɢɪɨɜɚɧɧɨɦɭ ɦɟɬɨɞɭ Ʉɪɸɝɟɪɚ [5]. ɉɟɪɟɞ ɨɤɪɚɫɤɨɣ ɤɨɪɧɟɣ ɪɚɫɬɟɧɢɣ ɩɪɨɜɨɞɢɥɢ ɢɯ ɦɚɰɟɪɚɰɢɸ. Ɉɬɦɵɬɵɟ ɤɨɪɧɢ ɩɨɦɟɳɚɥɢ ɜ ɟɦɤɨɫɬɶ ɫ 15 % ɪɚɫɬɜɨɪɨɦ KOH ɢ ɜɵɞɟɪɠɢɜɚɥɢ ɧɚ ɜɨɞɹɧɨɣ ɛɚɧɟ. ȼɪɟɦɹ ɦɚɰɟɪɚɰɢɢ ɭɫɬɚɧɚɜɥɢɜɚɥɢ ɷɤɫɩɟɪɢɦɟɧɬɚɥɶɧɵɦ ɩɭɬɟɦ ɜ ɯɨɞɟ ɦɧɨɝɨɤɪɚɬɧɵɯ ɩɪɨɛ. ɋɥɟɞɢɥɢ ɡɚ ɬɟɦ, ɱɬɨɛɵ ɜɨ ɜɪɟɦɹ ɦɚɰɟ - ɪɚɰɢɢ ɧɟ ɪɚɡɪɭɲɚɥɫɹ ɤɨɪɬɢɤɚɥɶɧɵɣ ɫɥɨɣ ɤɨɪɧɹ, ɜ ɤɨɬɨɪɨɦ ɪɚɡɜɢɜɚɸɬɫɹ ɷɧɞɨɦɢɤɨɪɢɡɧɵɟ ɝɪɢɛɵ . ɍɫɬɚɧɨɜɢɥɢ ɜɪɟɦɹ ɦɚɰɟɪɚɰɢɢ ɫɜɟɠɟɩɪɢɝɨɬɨɜɥɟɧɧɵɯ ɤɨɪɧɟɣ 7 ɦɢɧɭɬ. ȼ ɞɚɥɶɧɟɣɲɟɦ ɦɚɰɟɪɚɰɢɸ ɜɫɟɯ ɩɪɨɛ ɤɨɪɧɟɣ ɩɪɨɜɨɞɢɥɢ ɩɨ ɭɫɬɚɧɨɜ- ɥɟɧɧɨɦɭ ɜɪɟɦɟɧɢ. ɉɨɫɥɟ ɦɚɰɟɪɚɰɢɢ ɤɨɪɧɢ ɦɧɨɝɨɤɪɚɬɧɨ ɩɪɨɦɵɜɚɥɢ ɜɨɞɨɣ ɢ ɡɚɥɢɜɚɥɢ ɤɪɚɫɢɬɟɥɟɦ, ɪɚɫɬɜɨɪɨɦ ɚɧɢɥɢɧɨ - ɜɨɝɨ ɫɢɧɟɝɨ ɜ ɦɨɥɨɱɧɨɣ ɤɢɫɥɨɬɟ [5]. Ⱦɥɹ ɩɪɢɝɨɬɨɜɥɟɧɢɹ ɤɪɚɫɢɬɟɥɹ ɢɫɩɨɥɶɡɨɜɚɥɢ 1 ɝ. ɚɧɢɥɢɧɨɜɨɝɨ ɫɢɧɟɝɨ, ɢ 100 ɦɥ ɜɨ- ɞɵ, ɪɚɫɬɜɨɪ ɞɨɜɨɞɢɥɢ ɞɨ ɤɢɩɟɧɢɹ. Ɂɚɬɟɦ ɟɝɨ ɨɯɥɚɠɞɚɥɢ ɢ ɮɢɥɶɬɪɨɜɚɥɢ , ɞɨɛɚɜɥɹɥɢ ɜ ɧɟɝɨ 25 ɦɥ . 40 % ɦɨɥɨɱɧɨɣ ɤɢɫɥɨ - ɬɵ. ɉɨɫɥɟ ɨɤɪɚɫɤɢ ɤɨɪɧɢ ɨɬɦɵɜɚɥɢ ɜɨɞɨɣ ɢ 30 ɦɢɧɭɬ ɜɵɞɟɪɠɢɜɚɥɢ ɜ 40 % ɦɨɥɨɱɧɨɣ ɤɢɫɥɨɬɟ ɞɥɹ ɜɵɦɵɜɚɧɢɹ ɤɪɚɫɤɢ ɢɡ ɬɤɚɧɟɣ ɤɨɪɧɹ . ɉɨɫɥɟ ɷɬɨɝɨ ɤɨɪɧɢ ɜɧɨɜɶ ɩɪɨɦɵɜɚɥɢ ɜɨɞɨɣ ɢ ɩɨɦɟɳɚɥɢɫɶ ɜ ɱɚɲɤɢ ɉɟɬɪɢ ɢ ɡɚɥɢɜɚɥɢ ɝɥɢɰɟɪɢɧɨɦ [5]. Ⱦɥɹ ɦɢɤɪɨɫɤɨɩɢɪɨɜɚɧɢɹ ɝɨɬɨɜɢɥɢ ɫɪɟɞɧɢɣ ɨɛɪɚɡɟɰ ɤɨɪɧɟɣ. ɋɨɝɥɚɫɧɨ ɦɟɬɨɞɭ Ʉɪɸɝɟɪɚ, ɭ ɨɞɧɨɝɨ ɪɚɫɬɟɧɢɹ ɢɫɫɥɟɞɨɜɚɥɢ 20 ɫɦ. ɤɨɪɧɟɣ. Ɉɤɪɚɲɟɧɧɵɟ ɤɨɪɧɢ ɧɚɪɟɡɚɥɢ ɧɚ ɱɚɫɬɢ ɞɥɢɧɨɣ 1–2 ɫɦ. Ɉɬɪɟɡɤɢ ɤɨɪɧɟɣ ɪɚɡɥɚɠɢɜɚɥɢ ɧɚ ɩɪɟɞɦɟɬɧɨɦ ɫɬɟɤɥɟ ɩɪɢ ɩɨɦɨɳɢ ɛɭɦɚɠɧɨɝɨ ɬɪɚɮɚɪɟɬɚ. ɉɪɟɞɦɟɬɧɨɟ ɫɬɟɤɥɨ ɧɚɤɥɚɞɵɜɚɥɢ ɧɚ ɬɪɚɮɚɪɟɬ ɫ 4-ɦɹ

Transcript of Наука 2013

3

581.557.24:631.445.4

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2. 43,8±13,5 7,7±2,1 20 31,4 79,1 79,1

3. 36,7±9,4 5,1±1,0 23 41,6 65,5 65,5

6 -2013: . . 2. – , 2013

6. , . . «Glomus intradices»: .… .. / . . . – , 2009. – . 31–50.

Studies of the morphological features of mycorrhizae in horses Clematis tangutica shown that there is a development of symbi-otic structures: arbuskul, vesicles and hyphae of arbuscular mycorrhizal fungi. As a result of microscopic examination revealedarbuskuly at different stages of development; vesicles of various shapes and densities; hyphae inside and outside of the root. In thiscase the roots of C. tangutica not treated with the drug «Fundazol» mikorizny incidence of infection is higher than in the treated bywatering and spraying. Also slows the growth of plants within a month after the administration of the drug. More ingibiruyushchyeffect was seen on the treated plants by watering drug administration in comparison with the plants are sprayed.

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5. , . / . // . – ., 1961. – . 191–195.

6. / . . [ .] //. – 2000. – 4. – 409 .

The possibility of using terrestrial and aquatic mollusks in the bio-indication. It is shown that the representatives of theshellfish water, give a more pronounced response to external anthropogenic impacts. This is due to the homogeneity of the aqueousenvironment in contrast to the soil.

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, 35 % ). - Chlorophyta – 22 (31 %), – Cyanophyta 12 (17 %).

Euglenophyta, Crypthophyt Dinophyta 3 ( 4 %). Xanthophyta -2 (3 %) Chrysophyta – 1 (2 %).

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Hormogoniophyceae 2 4 4 9Cyanophyta

Chroococcophyceae 1 3 3 3

Volvocophyceae 2 2 2 2

Protococcophyceae 2 10 10 15

Ulothrichophyceae 1 1 2 2Chlorophyta

Conjugatophyceae 1 1 1 3

Euglenophyta Euglenophyceae 1 1 1 3

Cryptophyta Cryptophyceae 1 1 2 3

Dinophyta Dinophyceae 1 2 3 3

Xanthophyta Xanthococ ophyceae 1 1 1 2

Chrysophyta Chrysophyceae 1 1 1 1

Centrophyceae 2 2 2 3Bacillariophyta

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1. , . . / . , . . // .. 2. – 1988. – 3. – . 33–37.

2. , . . : / . . . – .:, 2003. – 157 .

3. , . . ( ) / . . // . . –1989. . 25, 4. – . 3–21.

4. . / . . [ .]; . . . . . – : . , 1989. – 608 .5. , . . / . . , . . ; . . . -

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. . // : VIII . .- . . ( , 24-26 . 2012.). 2 . . 1 / . . ; .: . . ( . .) [ .]. – : , 2012. – . 58–59.

11. , . . / . . , . . ,. . . – , 2006. – 498 .

The specific structure of a phytoplankton of the lake White is investigated. In 2011 71 types of algas from 8 departments arerevealed. The ekologo-geographical analysis of a phytoplankton is carried out. The majority of the revealed types are evritermny.Among indicators of organic pollution prevail -mesosaprobionts. The large number of views from departments of Cyanophyta andChlorophyta is a bright indicator of an evtrofnost of a reservoir.

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68 , 36 , 12 -. Carabidae , , 40

14 . Harpalus Amara ( 9 ). Calathus

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12 , 35 68 . Carabidae – 14 , – 40 . -

, . Staphylinidae. , Chrysomelidae, Hydrophilidae, Nitidulidae Tenebrionidae

( 1).

1 –

Carabidae; 14

Tenebrionidae; 1

Staphylinidae; 3Silphidae; 3

Scarabaeidae; 4

Nitidulidae; 1

Lucanidae; 2

Hydrophilidae; 1

Histeridae; 1

Elateridae; 3

Dermestidae; 1

Chrysomelidae; 1

13

Harpalus Amara, 9 . -Calathus Pterostichus 4 , Poecilus – 3 .

Carabidae. 31 1–2 ( 2).

Amara ; 9

Bembidion; 2

Calathus; 4

Harpalus; 9

Ophonus; 2

Poecilus; 3

Pterostichus; 4

Silpha; 2

Dermestes; 2

Margarinotus; 2

Philonthus; 4

; 25

2 –

, Harpalus rufipes (Deg.) (16 % ), Pterostichus melanarius (Ill.) (15,5 %), Bembidion lampros (Herbst) (4,7 %), Glischrochilus spp. (Reit.) (4,4

%) Calathus fuscipes (Goeze) (2,8% ). Dorcusparallelipipedus (L.) – 1 –1, (05.07.2012); Platycerus caraboides (L.) – 1 –1 (10.07.2012); Pterostichus strenuus (Panzer) – 1 –3, (12.07.2012); Phosphuga atrata(L.) – 1 –2 ( , 04.07.2012); Bembidion quadrimaculatum (L.) – 1 –3(02.08.2012); Amara ovata (F.) – 1 –3 (10.08.2012). Panageusbipustulatus (F.), 1 ( –1, 03.07.2012).

[4]. , Margarinotus bipustulatus (Schrank), M. brunneus (F.) Sphaeridium bipustulatum (F.)

– ( –3). , 4 ( –4)

Nitidulidae – . (29 ), –

(14 ) ( 3). , -. , ( ),

( , , ).

.

3 –

–1 Pterostichus melanarius (Ill.), Pterostichus niger (Schal.) Bembidion lampron(Herbst). , Pt. oblongopunctatus (F.), Badister meridionalis (Puel),Philonthus decorus (Grav.). Dorcus parallelopipedus (L.), Oxythyrea funesta (Poda),Hoplia graminicola (F.), Valgus hemipterus (L.), Carabus hortensis (L.) Agonum assimile.

–2 ( ) – Harpalus rufipes (Deg.), H. griseus (Dufts.), Poeciluslepidus (Leske), P. versicolor (Sturm). Aphodius fossor, Dermestes laniarius (Ill.),

14 -2013: . . 2. – , 2013

Agrypnus murinus (L.), Melanotus erythropus (Gmel.), Selatosomus aeneus (L.), Curtonotus aulica (Panzer), Amarabifrons (Gyll.), Calathus erratus (C.R. Sahl.) C. melanocephalus (L.). -

Silphidae: Phosphuga atrata (L.), Silpha obscur (L.), S. tristis (Ill.), Nicrophorus vespillo (L.).–3. Dermestes lardarius (L.),

Margarinotus bipustulatus (Schrank), M. brunneus (F.), Sphaeridium bipustulatum (F.). -–4. - , Harpalus rufipes (Deg.), Clivina fossor

(L.), Harpalus tardus (Panzer). Harpalus signaticornis (Dufts.) Amara ovata (F.). , , -

[1]. ( ) -

., -

. , , , ,

.

-.

1. , . . / . . . – , 1989. – 289 .2. , . . .

: . – , 1982. – . 51–52.3. , . . / . . . – , 1999. – 119 .4. (Coleoptera, Insecta) / . . [ .]; . . . -

. – , 1996. – 103 .5. , . . (Coleoptera, Carabidae) / . . . – : , 1978. – 85 .

In four test areas identified 68 soil beetles species belonging to 36 genuses, 12 families. Family Carabidae most richly as ingenus and species, in our collections are 40 ground beetles species from 14 genuses. The greatest number of species the genusHarpalus and Amara (from 9 species) contained.

– . . , , -, .

: 591.524.1(28):594.3

. .

.

. 2011 2012 . - 5 , . ,

. 12 . -Lymnaea stagnalis, Planorbarius corneus Viviparus contectus,

.

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). -, -

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. 2011 2012 . - 5 : ( 1, 2),

« » ( 3), ( 4), « » ( 5).

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. . [1, . 162; 2, . 126], [3, . 141]. -

15

[4, . 152]. , 2009 . [5, . 159].. 2011 2012 . 1667

, 11 , 6 , 6 : Viviparus contectus Mull., Bithyniatentaculata L., Planorbarius corneus L., Planorbis nitidus L., Planorbis planorbis L., Limnaea stagnalis L., Limnaeaovata Drap., Limnaea auricularia L., Lymnaea palustris L., Valvata piscinalis Mull., Sphaerium corneum L.

1 – .

2009 . 2011 . 2012 .1. Viviparus contectus + + +2. Bithynia tentaculata + + +3. Planorbarius corneus + + +4. Planorbis nitidus - + +5. Planorbis planorbis - - +6. Lymnaea ovata + + +7. Lymnaea auricularia + + +8. Lymnaea stagnalis + + +9. Valvata piscinalis - + +10. Anisus vortex + - -11. Sphaerium corneum + + +12. Lymnaea palustris - - +

2012 . – 11, 2011 2 – Pl. planorbis L. palustris. 2009 .,

8 , – A. vortex . - 2009 3 – Pl.

nitidus, Pl. planorbis L. palustris. . 12 1).

11 , 1 Bivalvia – S. corneum. . -

. , 2009 87,5 %, 2010 –89 % 2011 . – 91 % ( 1). , . -

, -, , .

2009 . 2011 . 2012 .

1 – .

5 « » 2010 2011 -, . 2011 .

1 2 . 2012 , (V. contectus), -

.

. . 2012 5 , 3 , 2

1 . 2011 – 4 , 1 , 2 1 . 2009 – 4 -, 1 3 . 2012

.

16 -2013: . . 2. – , 2013

2 –

2009 . 2011 . 2012 .1. Viviparus contectus 30,1 48,16 58,162 .Bithynia tentaculata 10,7 3,36 7,683. Planorbarius corneus 19,2 9,12 3,364. Planorbis nitidus - 0,32 0,385. Planorbis planorbis - - 1,926. Lymnaea ovata 0,7 1,6 6,337. Lymnaea auricularia 4,2 1,12 8,358. Lymnaea stagnalis 34,2 17,44 3,179. Valvata piscinalis - 17,92 6,3310. Anisus vortex 0,1 - -11. Sphaerium corneum 0,7 0,96 3,1712. Lymnaea palustris - - 1,15

. , 5 : 1 – ( ), 2 – -

( 80 % ), 3 – ( 60 %), 4 – ( 40 %) 5 – ( 20 %).

, 2012 P. corneus , L.stagnalis, 4- . 2011 -

, 2009 P. corneus , L. stagnalis – .B. tentaculata . L. ovata S. corneum 2009 . 2011 2012 . P. corneus, -

2009 . 2011 2012 . 2011 2012 . Pl. nitidusPl. planorbis , Val. piscinalis L. palustris . A. vortex 2009 .

, . L. auricularia, 2009 . , 2011 2012 . .

3 – .

2009 . 2011 . 2012 .1. Viviparus contectus -

2 Bithynia tentaculata3. Planorbarius corneus

4. Planorbis nitidus -5. Planorbis planorbis - -6. Lymnaea ovata7. Lymnaea auricularia8. Lymnaea stagnalis

9. Valvata piscinalis -10. Anisus vortex - -11 Sphaerium corneum12. Lymnaea palustris - -

, 2011 1 2 L. stagnalis, 2012 – P. corneus, 2009 . – L. stagnalis. 3

« » 2011, 2012 2009 . – V. contectus. 4 . 2009 – L. stagnalis, 2012 2012 . – V. contectus. ,

. : L. stagnalis, P. orneus V. ontectus., . 12 , 6

, 6 . , - 87,5 % – 91 % . ,

, .Lymnaea stagnalis, Planorbarius corneus Viviparus contectus.

, -, , . , , -

, , .

17

1. , . . / . . . – .: , 1971. – . 162–163.2. , . . (Coleoptera:Carabidae)

/ . . // . – 2002. – 3. – . 126–137.3. Gzechowski, W. Carabid beetles of moist meadows in the Masovian Lowland Memor / W. Gzechowski // Zool. – 1989. – W.

43. – C. 141–167.4. / . . . , . . -

. – .: , 1977. – . 152–174.5. , . . . / . . // :

V , 21 – 23 2009 . – : ,2009. – C. 159–162.

Studying of specific structure of molluscslitoral zones of reservoirs of Grodno. Definition of their number, studying ofdistribution on reservoirs.Definition and the analysis of the general domination, degrees of a constancy of a species.

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48 % 80 % , 0,3 , - 0,3 0,5 3 5 .

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3,5 µm, 3 150 ; ; - 48 % 80 % , 0,3 ; -

3 5 0,3 0,5 ; 38 ° ; 244 ( . 4).

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1. / . , . . , . . , . . . – .: -, 1985. – 585 .

2. Reproductive Endocrinology / Strauss III J. F., Barbieri R. L., Eds. Yen & Jaffe's. – Expert Consult, 6th ed., Saunders, 2009. – 944 p.3. , . . / . . . – .: , 1984. – 239 .4. , . / . . – .: , 1985.5. , . . . / . . . – : , 1980. – 400 c.6. Nozaki, O. Steroid analysis for medical diagnosis. Review / O. Nozaki // J. Chromatogr. A. – 2001. – Vol. 935. –

P. 267–278.

The object of the study are steroid hormones. The paper considers the development of new methods for the determination ofsteroids. Analyze different conditions of the definition of the test compounds. Research-based conclusions about the most favorableconditions, the separation and detection of steroid hormones. Chromatogram shows the separation of steroids.

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556.124: 574 (470.324)

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23

., 2012 ,

2013 . , 2012 3,63 , 4 – 8,2

. 2013 2,09 4 3,53 .

, -. -

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. : 2+,Mg2+, O3

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1. , . . . / . . // -. – , 2009. – 4 (70). – . 198–205.

2. , . . / . . , . . ; . . . . – : « -

», 2000. – 229 .3. : [ ] – :

http://grodno.gov.by/ru/main. – : 28.06.20124. , . . / . . . – : , 2003. – 234 .5. , . . / . . . . – : . . . ,

2002. – 80 .

The paper presents the results for the study of the chemical composition of snow, selected from various parts of Grodno. ThepH, contents of weighed substances, sulfate, nitrate and nitrite, chlorides, hydrocarbonates, ammonium, calcium, magnesium andheavy metals ions was determined during this work. Spatial differentiation of the main hydrochemical components in snow cover ofGrodno city has been estimated. Comparative analysis of output of and snow cover sampling in 2013 with the results of similarresearch in 2012 have been conducted.

– . . , .

597.5

. .

. ( , ; -, « ») 2011 . 6 : Esox lucius

(Linnaeus, 1758), Rutilus rutilus (Linnaeus, 1758), Perca fluviatilis (Linnaeus, 1758), Scardinius erythrophthalmus (Linnaeus,1758), Leuciscus cephalus (Linnaeus, 1758), Carassius auratus (Linnaeus, 1758). ,

Carassius auratus Rutilus rutilus. -.

– , -

[1].,

. , , -, ,

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15 80% , 300 . , -

24 -2013: . . 2. – , 2013

. [2].

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« »).. ( , ; -

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. ( -, , ). . -

, .. -

. , . -.

, .

59 , 6, 6 3 : Esox lucius (Linnaeus, 1758), Rutilus rutilus (Linnaeus, 1758), Perca fluviatilis

(Linnaeus, 1758), Scardinius erythrophthalmus (Linnaeus, 1758), Leuciscus cephalus (Linnaeus, 1758), Carassiusauratus (Linnaeus, 1758) ( 1).

1 – , 2011

1 Esox lucius 32 Rutilus rutilus 103 Perca fluviatilis 44 Scardinius erythrophthalmus 75 Leuciscus cephalus 26 Carassius auratus 33

, Carassiusauratus (56 %) – Rutilus rutilus (17 %) – ; – Leuciscus cephalus (3 %) –

Esox lucius (5 %) – ( 1; 1).

1 – , %

, 1 . , , 5-6 . -

2.

25

2 –

1 2 3 4 51 Esox lucius - 1 - - 22 Rutilus rutilus 1 6 1 - 23 Perca fluviatilis - - 2 2 -

4Scardiniuserythrophthalmus 1 2 1 2 1

5 Leuciscus cephalus - - 1 - 16 Carassius auratus 5 9 8 6 5

, , 3 5 -, ( 3) ( 5).

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.-

( 3). ( 4).

5, 2,04.

3 –

1 – 2 0,75

2 – 3 0,5

3 – 4 0,6

4 – 5 0,33

. , - – Carassius auratus Rutilus rutilus,

. Carassius auratus Rutilus rutilus 2.

4 –

1 1,14882 1,61223 1,70044 1,37105 2,0404

, Carassius auratus,

. Rutilus rutilus . -.

Rutilus rutilus . ,

( 2).Carassius auratus.

, - ; – -.

«Statistika for Windows» -. Carassius auratus r = 0,65, Rutilus rutilus – r = 0,81.

26 -2013: . . 2. – , 2013

2 – Carassius auratus Rutilus rutilus

. ( , -; , « ») 2011 .

6 , 6 3 . Carassius auratus (56 %). -

. Rutilus rutilus Carassius auratus. - 2 3.

Carassius auratus - , Rutilus rutilus .

.

1. , . . - / . // . – .: -

, 1981. – . 4. – . 59–66.2. , . . / . . . – : , 2002. – 18 .3. , . . / . . . – : , 1974. – . 8–12.

In specific structure of a fish fauna of the river Kotra near Golovachi (The Grodno area, the Grodno region; the territory adjacent to thelandscape wildlife area "Kotra") during a field season of 2011 6 species of fish are registered: Esox lucius (Linnaeus, 1758), Rutilus rutilus(Linnaeus, 1758), Perca fluviatilis (Linnaeus, 1758), Scardinius erythrophthalmus (Linnaeus, 1758), Leuciscus cephalus (Linnaeus, 1758),Carassius auratus (Linnaeus, 1758). It is revealed that the most widespread types in the studied site of the river are Carassius auratus andRutilus rutilus. Defined age structure of model species of fish and carried out the biological analysis of a fish fauna.

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628.31

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1. , . . / . . , . . . – .: , 2006. – 704 .

29

2. , . . /. . . – .: , 2003. – 512 .

3. Turovskiy, I. S. Wastewater sludge processing / I. S. Turovskiy, P. K. Mathai. – Canada: John Wiley & Sons Inc, 2006. – 354 p.4. « ». – , 2004. 60 c.5. 17.03-01-2010 (02120) (

). – : , 2010. – 12 .6. , . . / . . . – 2- ., . . – .: , 1974. –

527 .7. : . « » -

1-570101 / . . . , . . . – : , 2006. – 214 .8. , . . : / . . . – : , 2007. – 295 .9. : / . . . ,

. . – .: , 2008. – 36 .10. 17.4.3.07–2001. . .

. – 5 .

Object of studying is sewage sludge of biological treatment facilities of the enterprise for production of mineral fertilizers“Grodno Azot”. Physical and chemical characteristics of sewage sludge are given in the article, and also their influence onenvironment. It is revealed that humidity of sewage sludge decreases during their storage. The content of mineral substances remainsstable and organic decreases. The contents of macro- and microelements as a part of sewage sludge and regularity of their changes instorage process are defined. Results of work can be used for development of the specifications and technical documentation onsludge, which are prepared for use.

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577.158:612:82

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(GSH) (GSH/GSSG)-

[1–3]. GSH -, « » ,

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( ). ( -) [4–7]. GSH , -,

, [8]. GSH ( GSH/GSSG) ,

, , , -, [9, 10]. -

-, [11–13]. -

GSH [14]. [15] -

[16]. (PSP) [17], , PSP, -

GSH [18].-

[19, 20]. -.

30 -2013: . . 2. – , 2013

. Wistar CRL: (WI) WUBR - 180 – 200 . : ( , 300 ), ( ,

26 ), ( , 30 ), + (300 + 26 ), + (300 +30 ). ,

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[21]. ( ; 2.5.1.18) - [22, 23]. ( ; 1.6.4.2.)

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GSH,.

GSSG, GSH/GSSG 2GSH+GSSG,.

2,26±0,17 0,174±0,017 13,03±0,85 2,60±0,192,02±0,05* 0,191±0,019 10,65±1,07* 2,40±0,072,65±0,34* 0,238±0,024* 11,14±1,27 3,12±0,37*2,14±0,34 0,233±0,021* 9,19±1,33* 2,61±0,36

2,34±0,07# 0,245±0,014*# 9,58±0,71* 2,83±0,07*#

-Ca 2,72±0,21*# 0,261±0,025*# 10,47±0,79* 3,24±0,24*#

: * – <0,05 ; # – <0,05

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,.

, // .

, /.

96,79±27,77 0,031±0,002 21,75±0,9085,42±5,61 0,039±0,006* 25,00±0,87*125,89±34,17* 0,038±0,003* 22,06±1,1685,89±31,85 0,035±0,003 22,03±1,52

+ 104,70±9,23# 0,036±0,002* 26,29±0,98*#

+ 129,48±18,31*# 0,032±0,002# 23,86±0,89*

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.

1. Arteel, G. E. The biochemistry of selenium and the glutathione system / G. E. Arteel, H. Sies // Environmental Toxicology andPharmocology. – 2001. – V.10. – P. 153–158.

2. Analysis of glutathione: implication in redox and detoxification / A. Pastore [et al.] // Clinica Chimica Acta. – 2003. – V. 333, 1. – P. 19–39.

3. Cooper, A. J. Multiple roles of glutathione in the central nervous system / A. J. Cooper, B. S. Kristal // J. Biol. Chem. – 1997. –V. 378, 8. – P. 793–802.

4. Dringen, R. Glutathione pathways in the brain / R. Dringen, J. Hirlinger // J. Biol. Chem. – 2003. – V. 384, 4. – P. 505–516.5. Dringen, R. Metabolism and functions of glutathione in brain / R. Dringen // Progress in Neurobiology. – 2000. – V. 62. –

P. 649–671.6. Dringen, R. Glutathione metabolism in brain / R. Dringen, M. Jan, J. Hirrlinger // Eur. J. Biochem. – 2000. – Vol. 267. –

P. 4912–4916.7. , . . / . . //

: . . . / .- . ; . . . .. – ., 2003. – . 285–301.

8. Ursini, F. Phospholipid hydroperoxide glutathione peroxidase / F. Ursini, M. Maiorino, C. Gregolin // Int. J. Tissue React. –1986. – V. 8. – P. 99–103.

9. Cruz, R. Glutathione in cognitive function and neurodegeneration / R. Cruz, W. Almaguer Melian, J. A. Bergado Rosado // Rev.Neurol. – 2003. – V. 36, 9. – P. 877–886.

10. Bains, J. S. Neurodegenerative disorders in humans: The role of glutathione in oxidative stress-mediated neuronal death / J. S.Bains, C. A. Shaw // Brain Res. Rev. – 1997. – V. 25. – P. 335–358.

11. Christen, Y. Oxidative stress and Alzheimer disease / Y. Christen // Am J. Clin Nutr. – 2000. – V. 71. – P. 621S–629S.12. Alterations in glutathione levels in Parkinson's disease and other neurodegenerative disorders affecting basal ganglia / J. Sian [et

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Psychiatry. – 1996. – V. 20. – P. 1159–1170.16. Jenner, P. Oxidative damage in neurodegenerative disease / P. Jenner // Lancet. – 1994. – V. 344. – P. 796–798.17. Albers, D. S. New insights into progressive supranuclear palsy / D. S. Albers, S. J. Augood // Trends Neurosci. – 2001. –

V. 24. – P. 347–353.18. Siderowf, A. Update on Parkinson disease / A. Siderowf, M. Stern // Ann Intern Med. – 2003. – V. 138. – P. 651–658.19. , . . : /

. . // , : . .. / .- . . . – , 2003. – . 107–113.

20. : / . . [ .] –. – 2008. – 28 .

21. Zhang, Y.-Mei Chemical Knockout of Pantothenate Kinase Reveals the Metabolic and Genetic Program Responsible for HepaticCoenzyme A Homeostasis / Yong-Mei Zhang [et al.] // Chemistry & Biology. – 2007. – V. 14. – P. 291–302.

22. Habig, W. H. Glutathione S-Transferases. The first enzymatic step in mercapturic acid formation / W. H. Habig, M. J. Pabst,W. B. Jacoby // J. Biol. Chem. – 1974. – V. 249, 22. – P. 7130–7139.

23. Rice-Evans, C. A. Laboratory techniques in biochemistry and molecular biology: techniques in free radical research Elsevier /C. A. Rice-Evans, A. T. Diplock, M. C. R. Symons // Amsterdam. – 1991. – . 292.

24. Carlberg, I. Glutathione reductase / I. Carlberg, B. Mannervik // Methods Enzymol. – 1985. – V.113. – P. 484–490.25. , . . /

. . // . . – 1986. – 12. – . 724–727.

We studied effects of chronic ingestion of pantothenic acid derivatives on brain glutathione system activity. We showed thatchronic intragastral ingestion of the substances causes changes of the glutathione redox status in the rat brain hemispheres. The maineffects of long consumption of the drugs are increase of the GSH level and decrease of the GSH/GSSG correlation.

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);− Orthoptera.

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12, 13], Sorex araneus – 8 [6], (Lacerta agilis/Zootoca vivipara) – 10 [7], Passeriformes – 25 [8], Coleoptera -

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33

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34 -2013: . . 2. – , 2013

2 – . 2012 .

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1. , . . (Fal o tinnunculus) ( -) / . . // – 2013, . . . . : . -

.- . ., , 14–16 2013 . – : , 2013. – . 76–80.2. , . . / . . / . – . . . –

. 11. . – ., 1982. – . 158–220.3. . .1. . – : ., 2006. – 320 .4. , . . (Fal o tinnunculus), . ( ) 2012 . /

. . // – 2013, . . . : .. .- .., , 14–16 2013 . – : , 2013. – . 261–265.

5. , . . (Fal o tinnunculus) ( ) / . . , . . / – 2012, . 250- .

. . (1761–1847): . .- . ., , 2–4 2012 . – : ,2012. – . 132 –135.

6. , . . Circus aeruginosus Rodentia / . . , . . , . . , . . // .

. . . – 2002. – 1. – . 82–87.7. Arroyo, B. E. Diet of Montagu’s Harrier Circus pygargus in central Spain: analysis of temporal and geographic variation / B. E.

Arroyo / Ibis. – 1997. – V. 139. – P. 664–672.8. Underhill-Day, J. C. The foods and feeding rates of Montagu`s Harriers Circus pygargus breeding in arable farmland /

J. C. Underhill-Day // Bird Study. – 1993. – V. – P. 74–80.9. Vintchevski, Dz. Pustu ka Falco tinnunculus w Grodnie (zachodnia Bia oru ) / D. Vintchevski, S. Sakowich // Ptaki miast:

Konferencja naukowa., Zielona Góra, 14–16 wrze nia 2012 r. – Zielona Góra: Uniwersytet Zielonogórski, 2012. –P. 28–29.

10. Vintchevski, Dz. Zmiany sk adu pokarmu b otniaka kowego Circus pygargus w trakcie trwania sezonu l gowego na obszarzezachodniej Bia orusi / Dz. Vintchevski // Ptaki – rodowisko – Zagro enia – Ochrona. Wybrane aspekty ekologii ptaków. LTO,Lublin. – 2009. – . 295–307.

11. Vintchevski, Dz. Comparison of a diet of the Montagu`s Harrier (Circus pygargus L.) during breeding season in two distinctplots in the Western Belarus / Dz. Vintchevski, A. Yasievitch // Stud. i Mat. CEPL. – 2009. – 3. – P. 110–117.

12. Zawadzka, D. Breeding populations and diets of the Sparrowhawk Accipiter nisus and the Hobby Falco subbuteo in the WigryNational Park (NE Poland) / D. Zawadzka, J. Zawadzki // Acta Ornithol. – V. 36. – 2001. – 1. – P. 25 – 31.

13. Zawadzka, D. Feeding of the Black Kite Milvus mirrans, Red Kite Milvus milvus, White-tailed Haliaeetus albicilla and LessenSpotted Eagle Aquila pomarina in Wigry National Park (NE Poland) / D. Zawadzka // Acta Ornithol. – V. 34. – 1999 – 1. –P. 65–75.

We studied diet of Common Kestrel, nested inside Hrodna city (W Belarus) in 2012, on the basis of pellets` and preyremains analyses. The most important category of prey for the falcons were small rodents (mainly voles Microtus spp. –98,6 % from all eaten biomass (n= 47,418 kg). Other categories of prey (small Passerines, lizards, beetles and otherinsects) were not important.

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Westermarck, B. Halliwell // Ed. by Yohson YE. NewYork – 2001. – Vol. 15. – P. 68–74.7. Bendich, A. The atioxidant role of vitamin C / A. Bendich, I. Machlin, O. Scandurra, G. Rurton, D. Wayner // Adv. in Free

Radical Biology & Medicine. – 1986. – . 419.8. Stocks, J. The auto-oxidation of human red cells lipid induced by hydrogen peroxide / J. Stocks, T. Dormandy // Br. J. of

Haematology. – 1971. – Vol. 20. – P. 95–111.9. Ellmann, G. L. Tissue sulfhydryl groups / G. L. Ellmann // Arch. Biochem. Biophys. – 1959. – Vol. 82, – P. 70–77.10. Mossman, T. Rapid colorimetric assay for cellular growth and survival: application to proliferation and cytotoxicity /

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It is known that the development of various diseases (cancer, cardiovascular, neurodegenerative, acute and chronicinflammation, diabetes, etc.) is associated with impaired oxidative metabolism balance.The aim of the study was to evaluatethemechanism of the cytoprotective effect of some natural antioxidants (plant flavonoids, melatonin, etc.), using as test systems differenttypes of cells (for example, human erythrocytes and cell line B14). The study was established the pro-and antioxidant effects ofmelatoninand cytoprotective effects of some flavonoids.

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. – 2002. – 3. – 31 .

The paper analyzes the market of materials and techniques used in the construction of modern pipelines. Determine the mostrational forms of heat-insulating materials suitable for use in the construction of pipelines. The components of economic efficiency,the application of pre-insulated pipes. The influence of the structure of the material on the thermal insulation characteristics. The

50 -2013: . . 2. – , 2013

variants of composite materials based foam matrices. Conducted research on the optimization of composite materials based fillersthat are waste products.

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An analysis was conducted of the structure and micro hardness from low-hardenability in the initial state and after cryogenicprocessing in the interval from 10,20,30,40,50,60,70,80,90,100 and 110 minutes at the boiling point of liquid nitrogen. It has beenestablished that change of structure and increase of micro hardness of the surface layers samples of low- hardenability steel subjectedto cryogenic processing.

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This article is about the technology of improvement the corrugated pipes made of composite materials based on regeneratedpolyolefins. The aim of the research is to develop the technology of corrugated pipe made of composite materials based on regener-ated polyolefins. The object of the research is regenerated polyolefins. The actuality of the research is predetermined by the expand-ing of the sphere of the use of regenerated polymer materials.

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. 2. – 2003. – 2 – . 99–103.7. , . . : -

/ . . ; . . . , . . . – : , 2008. – 384 .8. , . / . . – : . ., 2003 –

328 .

Experimental results allow to conclude that the adding of mechanically activated modifiers allows changing the viscosity of thebase lubricant in a wide range – from viscosity reduction by up to 50% to its increase up to by 700%. Lubricants with specified vis-cosity index can be obtained by adding of a certain amount of modifier.

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4. , . . / . . // XX , -

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6. SolidWorks. / . . [ .]. – .: ,2006. – 800 .

In this article proposed design and materials science solutions of improvement in the rewinder work. These obtained solutionswere confirmed by the results of in-process and bench testing. Were conducted virtual testing with the help of CALS-technologies.

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The technology of improvement of durability and wearproof characteristics of a polymeric composite material passing undermark "Flubon" has been considered. It is shown that the given technology allows to receive a composite material with raised durabili-ties and wearproof characteristics.

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1. , . . : . … .. 05.02.01 / . . . – , 1983. – 12 .

2. Bragg, W. H. Using jf cupper like a component of lubrication / W. H. Bragg, W. L. Bragg // New-York, 1924. – 231 p.3. / . . [ .] // -

. – 1984. – 2. – . 625–629.4. , . . -

/ . . , . . // . – 2001. – . 22, 6. – . 689–692.5. , , – . / . .

.] // , . – 2010. – . 1, 1. – . 111–116.6. , . . – / . .

// . – 2010. – . 5, 5. – . 154–161.7. , . . / . . //

i i , 2. – 2003. – 2. – .99–103.8. . ( , , ) / . . [ .]. – : ,

2005. – 260 .9. , . . / . . . // -

: I , . / . . . –, 2012. – . 268–270.

The paper considers the possibility of improving the rheological and tribological properties of greases used in severe friction.The information about nanomodifiers entered in base composition greases improving rheological and tribological properties. The aimof this work was to develop formulations of lubricants for heavy friction, based on domestic raw materials with improved rheologicaland tribological properties. The scientific novelty of the work is to establish the effect of improving the physical and mechanicalproperties of the resulting compositions of lubricants. The practical significance is that the introduction of the basic structure of theproposed grease modifier improves the flow and characteristics of the resulting compositions triboengineering increases the timeperiod to find the friction in the lubricant.

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70 -2013: . . 2. – , 2013

2. Struk, V. On corrosion mechanical concept of Wear for Tribogical Metal-Polymeric Structures. / V. Struk, Yu. Pleskachevski. //International Conference of Tribology. – London, 1987. – P. 344–349.

3. / . . . . – .: , 1964. – 331 .4. , . . / . ; . . . -

. – .: , 1972. – 544 .5. , . . / . . // 2000:

. . . .- . . – , 2000. – . 3–9.6. , . . . / . . //

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. . . . . . . – 1989. – . 34, 5. – . 501–506.11. , . . . / . . . – , 1991. – 260 .12. / . . . . . – : , 1986. –

376 .13.

/ . . [ .] // -: ,

, 4-8 . 2010 . / « . . »; . . . . – , 2010. – . 226 – 229.

The features of the structure and rheological properties of thermoplastic matrix filled with doping additives nanosilicates areinvestigated.

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. – 2010. – 5. – . 10–19.6. , . . / . [ .] // . . . ( . . . .

. . ). – 2008. – . LII: . . – 3. – .97–105.

Kinetic-stable colloids containing superfine particles were derived by means of black lead and polytetrafluoroethylene laserablation in distilled water. The size of black lead and polytetrafluoroethylene particles was determined by the atomic-powermicroscopy method.

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The polymer-cement materials based on mix-astringent and polystyrene waste are developed. Hydrophysical and mechanicalproperties of developed materials are investigated. We have confirmed that modification of traditional materials on the basis ofmineral astringent by polymer additives is important now.

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2. [ ] / . – : http://www.mo-potolok.ru. – : 20.03.2012.

3. [ ] / Stroyhaus. – :http://www.srtoyhaus.ru. – : 25.03.2013.

4. [ ] / . – :http://www.vira.ru. – : 25.03.2013.

5. [ ] / , . – : http://www.decorb.ru. –: 26.03.2013.

6. . [ ] / . – :http://www.7x7.by. – : 26.03.2013.

7. [ ] / . – -: http://www. neznaniya.net. – : 26.03.2013

The article deals with building materials currently used for finishing ceilings. Attempting to develop an algorithm that allowsto choose the most suitable material for finishing the ceiling with the most important requirements for a particular object. To createan algorithm analysis of domestic and foreign materials on the construction market in the Republic of Belarus.

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3. 5.03.01-02. . – 2.03.01-84*; . 2002-06-20. – :, 2003. – 146 .

4. 25.601-80. . ( ). ,

. – . 1981-07-01. – .: , 1981. – 9 .

The massive use of composite reinforcement limited by the lack of data the mechanical characteristics of the material. Thispaper presents an analysis of the mechanical properties of the composite reinforcement and methods of use are described inreinforced concrete structures of composite materials.

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691

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1. 45-1.03-63-2007 (02250). . . – , 2007.2. / . . . , . . . – : . -

, 1984. – 479 .3. : / . . , . . , . . . – 4- ., . – .:

. ., 2008. – 391 .

This article provides an analysis of the Technical Code of Practice TAP 45-1.03-63-2007 (02250). TAP, which regulates theissues related to the installation of buildings and structures, a very important document. Therefore, it should not be errors andinaccuracies that lead to misunderstandings and getting errors in the design. This article shows the identified errors and omissionsreasonably prove the need for corrective action. The problem of errors in the regulations already raised by some authors, however,did not address a particular document.

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: http://www.koleso-nsk.com/arenda/ekskavatory.php. – : 09.04.2013.

127

At present, the Republic of Belarus in the determination of labor costs continue to use regulatory instruments developed in theUSSR. An example of such a document - uniform rates of labor production and costs. Consequently, the valuation work performedby modern construction machines, in some cases not feasible. The article on the example shows how to change the duration of work,certain technical characteristics of a particular excavator and using the current regulatory framework.

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1. , . . / . . . – : ., 2012. – 287 .2. , . . . XVI – XVII . / . . . – : i ,

1991. – 367 .3. , . . / . . , . . . – : , 1998. – 387 .4. , . . / . . . – : , 2007. – 302 .

130 -2013: . . 2. – , 2013

5. , . . : / . // [ ]. – 2013.– : http://supron-licvin.livejournal.com/28843.html. – : 10.04.2013.

Grodno, one of the oldest cities in Belarus, played a huge role in the development of the national Belarusian architecture. In thearticle the peculiarities of the development of the main element of the urban structure of the city (Market Square) in differenthistorical periods are considered. The analysis of the space-planning, structural, compositional and aesthetic features of the Marketsquare ensemble (the XIV – XIXth century) is carried out.

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72.03(075.8)

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1. , . . « » 2013 .2. . / . [ .]. – , 2012.3. ? // . – 2012. – 20 .

The article highlights some of the aspects related to the fate of one of the most significant historical and cultural heritage Grodnnenschiny– the former home of the merchant Murav'eva, the origin of which dates back to XIX century, and which, despite its relatively small size, has avery important role in the formation of a unique urban ensemble Soviet Square – the main square of the city of Grodno.

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135

2. . 2: : N 1991-2-2009. – . 01.01.10. –: , 2010. – 147 .

3. . : 1992-2006. – . 01.06.07. – :, 2006. – 18 .

The overpass through railway station of Grodno is not a typical structure. Design decisions which were made during buildingproduction at this object has changed several times. This has allowed to decrease the duration of building, to reduce labor input andto lessen consumption of money resources.

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Nowadays matrix methods for the calculation of the difficult engineering structure with the application of the computer aregetting growing development and spreading. Though the matrix form of the calculation is known for long ago it didn't get a widespread occurrence for a long time because of the limeted possibilities of the computing machinery facilities and because of lack ofavailable software

1. , . . / . . . – .: , 1982. – 400 .2. , . . / . . . – , 1989. – 168 .

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1. « » « » [ ] / . – : http://grodno-khim.by/about/company/. – : 12.01.2013.

141

2. [ ] / . – :http://www.stroitech.by/stati/fibrobeton-fibra-stalnaya-frezerovannaya.html. – : 12.01.2013.

3. / . . [ .] // -. – : « », 2011. – . 151–154.

4. [ ] / . – : http://www.stroitech.by/stati/fibra-polipropilenovaya.html. – : 12.02.2013.

5. [ ] / . – :http://budmat.kiev.ua/stattjy/statjy/bazaltovayafibra.html. – : 12.02.2013.

6. [ ] / . – : http://www.trans-mix.ru/info/steklovolokno_fibra.php. – – : 12.02.2013.

7. , . - / . . , . . , . . //

: XV : . .- . . – : ,2010. – . 268–273.

8. , . . / . . -, . . // . – 2009 . – 8. – . 28–31.

In the article the materials used for fibroarmirovaniya concrete. The main advantages and disadvantages of fibroarmirovaniya.Found that the work on the reinforcement of concrete disperse performed by many researchers, while used: steel, minerals, polymers,glass. Most of the fibers have not found industrial application because the concretes were expensive, have low durability and corro-sion resistance, poorly distributed over the volume of concrete. Proposed use these fibers as secondary products formed in chemicalplants Grodno region amide PH 192, PH 123, and polyamide polyester RN 102.

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2. 45-2.04-43-2006 (02250). . . - . 2006-12-29. –: : « », 2007. – 36 .

3. 2 45-2.04.43-2006 (02250) . . –. 2010-08-18. – : , 2010. – 1 .

4. 45-1.04-14-2005. . . –. 2005-10-10. – : , 2006. – 40 .

5. [ ] / « ». – , 2013. – -: http://www.pulscen.by/. – : 03.04.2013.

144 -2013: . . 2. – , 2013

This article presents the main characteristics, the cost per cubic meter, advantages and disadvantages of construction of theoutside walls of the most common materials used in low-rise construction. Three variants of designs walls of buildings are compared,based on the construction costs and costs in the period of exploitation, taking into account the normative operation.

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; 9 – ; 10 – ; 11 – ; 12 – , XII .

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2. , . . / . . . – : . , 2007. – 303 .; .3. , . . / . . . – : . ., 2012. – 287 .; .4. [ ] / . – , 2008. – :

http://www.grodno.by/grodno/architecture/borisoglebskaja_cerkov.html. – : 20.03.2013.5. , . . / . . . – : . ., 1977. – 315 .

147

In article historical and cultural and architectural aspects of emergence of the most ancient city of Belarus – Grodno are con-sidered, the analysis of formation and development of its planning structure in X-XIII centuries is given. Also in article are consid-ered unique a monument of architecture of Grodno this period. The analysis of their space-planning, design and architectural and artfeatures is given, the role in formation of the Grodno architectural school is noted them.

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2. [ ]. – 2013. – : http://www.74rif.ru. – : 28.03.2013.3. . : 22688-77. – . 01.01.1979. – .:

, 1979. – 19 .4. . : 10178-85. – . 01.01.1987. – .:

, 1987. – 8 .

This articleprovides general informationabout themagnesia cement,the prospect ofits usein the production ofmodern buildingmaterials,on the studiesof magnesiabinderpreparedby roastingdolomite. Shown that thefiringof naturaldolomitedepends strongly onthestructure of the mineral, the presence of impurities,particle size distribution.

. . , .

186 Наука-2013: сборник научных статей. Ч. 2. – Гродно, 2013

СОДЕРЖАНИЕ

БИОЛОГИЯ ....................................................................................................................................................................... 3

Бахар Ю. А. Влияние фунгицида «Фундазол» на степень микоризации корней Clematis tangutica Korsh ..... 3 Ботвинко А. Н., Климович Ю. П. Моллюски в биохимической индикации наземных и водных экосистем .. 6 Булак Ж. А. Таксономическая и эколого-географическая характеристика фитопланктона озера

Белое (ландшафтный заказник «Озёры», Беларусь) ....................................................................................................... 9 Гляковская Е. И. Таксономическая структура почвенных жесткокрылых (Свислочский район,

Гродненская область, Беларусь) ..................................................................................................................................... 11 Горбач Д. С. Мониторинг видового разнообразия моллюсков водоемов г. Гродно ........................................ 14 Клиса С. Д. Разработка методов разделения стандартной смеси стероидов для двух типов сорбентов ........ 17 Ковальчук Н. В. Гляциохимическая характеристика снежного покрова на территории города Гродно........ 20 Кордикова А. С. Видовое разнообразие и биологический анализ ихтиофауны реки Котра ........................... 23 Круковская Е. В. Физико-химические характеристики осадков сооружений биологической очистки ......... 26 Плявго К. В. Влияние производных пантотеновой кислоты на изменения системы глутатиона в

мозге...................................................................................................................................................................................29 Саковіч С. У. Рацыён харчавання звычайнай пустальгі (Falсo Tinnunculus), гняздуючай у

г. Гродна ў 2012 г. ............................................................................................................................................................ 32 Стацевич М. И., Точеная О. П. Эффективность использования активных элементов Visual Basic

при создании электронных учебных пособий в среде приложения Microsoft Office Power Point…………………35 Чернак Е. А. Роль образовательных учреждений в общем процессе формирования знаний и

мотиваций для действий во благо устойчивого развития ............................................................................................ 37 Шашута Е. Ю., Шимуль А. М. К вопросу микологической опасности воздушной среды г. Гродно ............ 40 Шиков А. В. Молекулярные механизмы окислительного стресса ..................................................................... 43

ИННОВАЦИОННЫЕ ТЕХНОЛОГИИ ............................................................................................................ 47

Бакало В. И. Материалы, технологии и экономические аспекты производства и использования предизолированных металлополимерных труб ............................................................................................................ 47

Казьмин А. А. Влияние криогенной обработки сталей пониженной прокаливаемости на микроструктуру и прочностные характеристики.......................................................................................................... 50

Крипень А. Ю. Технология гофрированной трубы из композиционных материалов на основе регенерированных полиолефинов. ................................................................................................................................. 53

Лесун А. Н. Исследование реологических и триботехнических характеристик пластичных смазок, модифицированных наноструктурными частицами ..................................................................................................... 56

Папроцкая Н. Н. Технологии снижения интенсивности коррозионно-механического изнашивания элементов технологического оборудования по переработке полимерных волокон ................................................. 59

Семак В. А. Повышение деформационно-прочностных и триботехнических характеристик композиционного материала на основе политетрафторэтилена ................................................................................. 61

Сластенов П. С. Исследование реологических и триботехнических характеристик нанокомпозиционных смазочных материалов .............................................................................................................. 64

Шостко А. А. Исследование реологических характеристик полиамидных материалов ................................. 67 Шупан П. И. Получение наночастиц при лазерной абляции графита и политетрафторэтилена в жидкости и

исследование полученных структур атомно-силовым методом ................................................................................. 70

МАТЕМАТИКА И ИНФОРМАТИКА ........................................................................................................................... 74

Банюкевич Е. В. Непрерывное вейвлет-преобразование обобщенных функций……………………………..74 Белых Ю. Ю. Разработка итерпретатора LISP на ECMAScript .......................................................................... 76 Бибило Е. Р. О рациональных решениях некоторых дифференциальных уравнений ..................................... 78 Бобовик Е. В. Об архитектурной концепции системы, поддерживающей анализ данных по кадровому

обеспечению в разрезе высшей школы .......................................................................................................................... 81 Жавнерко Е. В. Разработка обощенной среды, поддерживающей различные взаимодействия в

рамках кафедры учебного заведения ............................................................................................................................. 84 Ивановская Т. К. Нахождение ожидаемых доходов пунктов региональной таможни с помощью

НМ-сети с двумя типами заявок ..................................................................................................................................... 86 Кузьмич А. В. Об отсутствии предельных циклов в одном классе обобщенных систем Куклеса .................. 89 Лазарь Д. В. О некоторых подходах к созданию системы поддержки экспрессной лазерной

экспертизы ........................................................................................................................................................................ 93 Ломакин В. А. О разработке мобильного приложения для сканирования и отождествления баркодов ........ 96 Монько В. Д. О стохастической модели процесса движения разнотипных документов ................................. 98 Погерило Ю. В. Об одной автономной системе дифференциальных уравнений со свойством Пенлеве..... 101

Содержание 187 Савлук Е. В. Разработка рекомендательного сервиса, основанного на методе коллаборативной

фильтрации ..................................................................................................................................................................... 104 Садовская Д. М. Анализ управляемости стационарных сингулярно возмущенных систем с

запаздыванием третьего порядка в пространстве 3

11

3

2 ],[ RthtL средствами компьютерной математики .. 107 Степаненко И. С. Об одном из решений задачи производственного планирования для офсетной

типографии...................................................................................................................................................................... 110

СТРОИТЕЛЬСТВО ....................................................................................................................................... 113

Адашкевич А. И. Полимерцементные материалы .............................................................................................. 113 Бодяк Е. В. Эффективность применения материалов для отделки потолков ................................................. 116 Волик Е. К., Гаврильчик М. Н. Применение неметаллической композитной арматуры при

проектировании и усилении строительных конструкций .......................................................................................... 119 Василевич Е. Н., Гордейко М. Г. Проблемы в области проектирования монтажных работ в

соответствии с ТКП 45-1.03-63-2007 ........................................................................................................................... 121 Варивода О. А., Дягель Е. Д. Техническое нормирование при применении современных строительных

машин .............................................................................................................................................................................. 124 Жамойтина Т. Г., Юргель Е. В. Архитектурно-планировочные особенности формирования

центральной площади Гродно в XIV – XIX вв. ........................................................................................................... 127 Максимец О. С., Лукашик Ю. С. Прошлое, настоящее и будущее бывшего дома купца Муравьева в .............

г. Гродно – памятника архитектуры XIX в.. ................................................................................................................ 130 Мазур Е. Н., Пуцко Д. В. Особенности проектирования и возведения путепровода через железнодорожные

пути станции Гродно............................................................................................................................................................... 132

Пшеничный М. Г. Исследование напряженно-деформированного состояния упругих систем матричными методами ................................................................................................................................................... 135

Рапейко Е. В., Чинь К. Материалы для дисперсного армирования бетона ..................................................... 138 Трусь Е. А. Конструктивные решения наружных стен в сфере малоэтажного строительства ...................... 141 Хотим Н. В. Памятники архитектуры Гродно XII – XIV вв. ............................................................................ 144 Якусевич В. В. Магнезиальный цемент ............................................................................................................... 147

ФИЗИКА ....................................................................................................................................................... 150

Анисько В. И. Решение задач как способ активизации познавательной деятельности учащихся ................ 150 Венская А. И. Информационные технологии и их роль в преподавании физики ........................................... 152 Глебович М. И. Анализ спектров поглощения и флуоресценции гистологических срезов разного

уровня патологии ........................................................................................................................................................... 155 Ильянкова Н. А. Методические основы организации физических опытов с использованием

надувных шаров ............................................................................................................................................................. 158 Карпович А. Г. Параллельные вычисления в молекулярной динамике ........................................................... 161 Корыткин И. Н. Зарядовое состояние на поверхности поликристаллических металлов .............................. 164 Лавыш А. В. Спектральные свойства бензотиазолового красителя BTSE в водно-глицериновых

растворах ......................................................................................................................................................................... 166 Левицкая Л. В. Современное состояние теории и практики использования учебного

эксперимента в процессе обучения физике ................................................................................................................. 169 Макей В. Н. Интерактивная доска как средство обучения новому учебному материалу по физике ........... 171 Пацына Т. И. Декорирование поверхности диэлектрика наночастицами и формирование скрытых

изображений ................................................................................................................................................................... 174 Роткевич А. Л. Фактор Дебая–Уэллера .............................................................................................................. 177 Ситкевич Ф. А. Особенности процесса кристаллизации расплавов металлов ............................................... 180 Тарасюк С. Ю. Автоматизация оценивания неопределенности измерений.................................................... 182