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91探花
post it note DNA

Dr Jon Bath

Group Leader

Research theme

  • Biological physics

Sub department

  • Condensed Matter Physics

Research groups

  • Nucleic acid nanotechnology
jonathan.bath@physics.ox.ac.uk
Biochemistry Building, room 30-092
  • About
  • Publications

Design and assembly of double-crossover linear arrays of micrometre length using rolling circle replication

Nanotechnology 16:9 (2005) 1574-1577

Authors:

D Lubrich, J Bath, AJ Turberfield

Abstract:

We demonstrate the use of rolling circle replication to template linear DNA arrays whose sizes bridge the gap between nanometre-scale self-assembly and top-down lithographic fabrication. Using rolling circle replication we have produced an oligonucleotide containing several hundred repeats of a short sequence motif. On this template we have constructed, by self-assembly, an array consisting of two parallel duplexes periodically linked by antiparallel Holliday junctions. We have observed arrays up to 10 谓m in length by atomic force microscopy. 漏 2005 IOP Publishing Ltd.

A Free鈥怰unning DNA Motor Powered by a Nicking Enzyme

Angewandte Chemie Wiley 117:28 (2005) 4432-4435

Authors:

Jonathan Bath, Simon J Green, Andrew J Turberfield

A free-running DNA motor powered by a nicking enzyme.

Angew Chem Int Ed Engl 44:28 (2005) 4358-4361

Authors:

Jonathan Bath, Simon J Green, Andrew J Turberfield

Self-assembly of chiral DNA nanotubes.

J Am Chem Soc 126:50 (2004) 16342-16343

Authors:

James C Mitchell, J Robin Harris, Jonathan Malo, Jonathan Bath, Andrew J Turberfield

Abstract:

A system of DNA "tiles" that is designed to assemble to form two-dimensional arrays is observed to form narrow ribbons several micrometers in length. The uniform width of the ribbons and lack of frayed edges lead us to propose that they are arrays that have curled and closed on themselves to form tubes. This proposal is confirmed by the observation of tubes with helical order.

DNA transport in bacteria.

Nat Rev Mol Cell Biol 2:7 (2001) 538-545

Authors:

J Errington, J Bath, LJ Wu

Abstract:

DNA transport is important in various biological contexts--particularly chromosome segregation and intercellular gene transfer. Recently, progress has been made in understanding the function of a family of bacterial proteins involved in DNA transfer, and we focus here on one of the best-understood members, SpoIIIE. Studies of SpoIIIE-like proteins show that they might couple DNA transport to processes such as cell division, conjugation (mating) and the resolution of chromosome dimers.

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