04.11.2014 Views

trans

trans

trans

SHOW MORE
SHOW LESS

Create successful ePaper yourself

Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.

482 INDEX<br />

Pyrimidine <strong>trans</strong>port, 200–7<br />

Amitochondriates, 206<br />

helminths, 206–7<br />

Trypanosoma brucei, 204–5<br />

Pyrimidines, 197, 198<br />

Pyrophosphate-linked (PPi) acetate kinase, 134<br />

Pyrophosphate-linked (PPi) phosphofructokinase,<br />

133, 134<br />

Pyruvate dehydrogenase, 349<br />

Plasmodium falciparum, 165<br />

Pyruvate dehydrogenase complex, 133, 349–50,<br />

351, 355<br />

Pyruvate dikinase, 130, 134<br />

Pyruvate ferredoxin oxidoreductase, 132, 133, 165,<br />

284, 424<br />

drug targeting, 284<br />

Pyruvate kinase, 130, 344<br />

Plasmodium falciparum, 159<br />

trypanosomes, 148<br />

Pyruvate phosphate dikinase, 148–9<br />

Pyruvate <strong>trans</strong>porter, 144<br />

Qinghaosu, 411, 439<br />

Quinacrine, 436, 439<br />

resistance, 425<br />

Quinidine, 442, 443<br />

Quinine, 433, 439, 442–3, 446<br />

resistance, 406–7<br />

structure, 401, 440<br />

Quisqualate, 373<br />

structure, 361<br />

RACK1, 252<br />

Reference strains, genome sequencing, 13–14<br />

Reservosome, 180<br />

Reticulocalbin, 245<br />

Rhodoquinone, 348–9, 350<br />

Ribonucleotide reductase, 198, 209, 219,<br />

220, 222<br />

Ribozymes, 33<br />

rif genes, 107<br />

RNA cis-splicing:<br />

lariat intermediate, 31, 33<br />

mechanism, 32<br />

splice site bridging complexes, 34, 35<br />

trypanosomes, 75<br />

RNA degradation pathways, 71–2<br />

cap removal, 72<br />

EP genes, 81–3<br />

nonsense-mediated decay, 71<br />

poly(A) tail degradation, 71<br />

trypanosomes, 76–80, 84–5<br />

RNA editing, 37–44, 281<br />

guide RNAs (gRNAs), 39, 41–2<br />

historical background, 37–8<br />

in vitro systems, 42, 43<br />

kinetoplast RNA, 38–9<br />

mechanism, 39<br />

models, 39–41<br />

cleavage–ligation, 40<br />

<strong>trans</strong>esterification, 40–1<br />

regulatory proteins, 42–3<br />

role in gene expression, 43<br />

therapeutic targeting, 43<br />

RNA interference (double-stranded<br />

RNA-mediated gene knockouts), 18<br />

RNA pol I, 47, 73, 98<br />

-amanitin resistance, 49<br />

<strong>trans</strong>cription machinery, 55–6<br />

<strong>trans</strong>cription termination mechanism,<br />

55<br />

RNA pol II, 47, 49, 57, 59, 61, 63, 70, 81<br />

RNA pol III, 48, 49, 60, 63<br />

RNA polymerases, 47–8<br />

RNA processing, 29, 69<br />

see also Post-<strong>trans</strong>criptional regulation<br />

RNA <strong>trans</strong>-splicing, 29–37<br />

biological function, 35–7<br />

evolutionary origin, 31<br />

historical background, 29–30<br />

mechanism, 32, 33–5<br />

phylogenetic distribution, 30–2<br />

polycistronic <strong>trans</strong>cription, 35–7<br />

protein coding genes, 48–9<br />

splice site bridging complexes, 34,<br />

35<br />

spliced leader (SL) RNA to pre-mRNA,<br />

59<br />

therapeutic applications, 32<br />

trypanosomes, 75–6<br />

Y-branched intermediate, 31<br />

RPA1,76<br />

RPA2,76<br />

Saccharomyces cerevisiae:<br />

genome, 69<br />

promoter structure, 51–2<br />

telomere position effect (TPE), 100–1<br />

SAG1,59<br />

Salicylhydroxamic acid (SHAM), 163<br />

Salinomycin, 412<br />

Salvarsan, 419<br />

Sand fly vectors, 112, 113<br />

Sarcalumenin, 245

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!