ライフサイエンスコーパス: rolling circle replication

1 are then further enriched by randomly primed rolling circle replication.

2 c RNA motif, the HDV ribozyme, during double-rolling circle replication.

3 ial viral replication protein that initiates rolling circle replication.

4 and lagging strands are co-ordinated in SV40 rolling circle replication.

5 catalyzes DNA cleavage during initiation of rolling circle replication.

6 ri sequence-containing clones, indicative of rolling circle replication.

7 iester bond and linearize concatemers during rolling circle replication.

8 on and DNA cleavage during the initiation of rolling-circle replication.

9 e of a viroid RNA three-dimensional motif in rolling-circle replication.

10 of copies generated on a master molecule by rolling-circle replication.

11 NA transposons, Helitron, which transpose by rolling-circle replication.

12 otein, AL1, that catalyzes the initiation of rolling-circle replication.

13 ements for DNA cleavage during initiation of rolling-circle replication.

14 irection, with the 3' end likely extended by rolling-circle replication.

15 -stranded DNA, which is required to initiate rolling-circle replication.

16 d protein (Rep) that catalyzes initiation of rolling-circle replication.

17 roducing tandem CpG and shRNA via concurrent rolling circle replication and rolling circle transcript

18 The substitution pattern suggested rolling circle replication as an array expansion mechani

19 emonstrated that second-strand synthesis and rolling-circle replication did not appear to be the majo

20 itous presence and fundamental importance of rolling circle replication elements, structural informat

21 curring hammerhead ribozymes are produced by rolling circle replication followed by self-cleavage.

22 However, the exact mechanism of rolling circle replication for HDV RNA and viroids is no

23 Rolling circle replication from M13 DNA circles was prev

24 CGG, and GAA repeats were the templates for rolling circle replication from the f1 phage origin.

25 Rolling circle replication generates multimeric satRPV R

26 Since rolling circle replication has been established in vitro

27 Rolling circle replication has previously been reconstit

28 the nucleases involved in the initiation of rolling circle replication in plasmids and viruses, and

29 ce (MVM) replicates via a linearized form of rolling-circle replication in which the viral nickase, N

30 sses activities common to the superfamily of rolling-circle replication initiator proteins in general

31 lysis of in vitro replicated products showed rolling circle replication intermediates for single ori

32 lomeric strand and tailed circles resembling rolling circle replication intermediates.

33 Rolling circle replication is a mechanism for copying si

34 Rolling-circle replication is initiated by a replicon-en

35 ular RNA that is presumed to replicate via a rolling circle replication mechanism mediated by cellula

36 ke circular RNA that replicates via a double rolling circle replication mechanism.

37 cted human cells (293 cells) can promote the rolling circle replication of circular duplex DNA molecu

38 ocess multimeric intermediates in the double-rolling circle replication of its genome.

39 uired the helicase PcrA that is required for rolling circle replication of many plasmids.

40 packages a linear concatemer created during rolling circle replication of pBR322, similar in fashion

41 -encoded helicase, PcrA, is required for the rolling circle replication of plasmid pT181 in Staphyloc

42 recruited into the replisome by RepD during rolling circle replication of plasmids of the pT181 fami

43 frequent t-loop HR events that could promote rolling circle replication of telomeres in the absence o

44 We propose a model in which continued rolling circle replication of the large circular concata

45 lacement of downstream strand, analogous to 'rolling circle' replication of bacteriophage in vivo.

46 -stranded DNA (ssDNA), analogous to in vivo 'rolling circle' replication of bacteriophage.

47 te efficient reloading of DnaB helicase onto rolling circle replication products, thereby permitting

48 in a manner distinct from that of any other rolling circle replication proteins.

49 evel, including motifs associated with other rolling circle replication proteins.

50 des: complementary strand replication (CSR), rolling circle replication (RCR) and recombination-depen

51 erized transposase; rather, it is related to rolling circle replication (RCR) proteins.

52 They are presumed to amplify by rolling-circle replication (RCR) because some elements e

53 ontains amino acid sequence motifs common to rolling-circle replication (RCR) initiator proteins.

54 from long DNA building blocks generated via rolling-circle replication (RCR) of a designed template.

55 rating the gel system with this well-studied rolling circle replication reaction, we then analyzed th

56 lambda genomic DNA is replicated via rolling circle replication, resulting in multiple genome

57 wo conserved sequence motifs that define the rolling circle replication superfamily.

58 splacement mechanism, a linear adaptation of rolling circle replication that relies on the repeated f

59 In rolling circle replication, the normal mechanism for ter

60 ribozyme in vivo to process the products of rolling-circle replication to unit-length molecules.