Jump to content

Biological nanopores: Difference between revisions

From Nanopore Wiki
Restore visible brand name to Nanopore Wiki
Tag: Manual revert
Use topic-specific Wikimedia Commons illustrations
Line 2: Line 2:
<translate>
<translate>
<!--T:1-->
<!--T:1-->
[[File:Lipid bilayer closeup.png|thumb|right|320px|Lipid bilayers are commonly used to support biological nanopores. Source: Wikimedia Commons, CC BY-SA 4.0.]]
[[File:Patch_clamp_schematic_1.png|thumb|right|320px|Lipid bilayers are commonly used to support biological nanopores. Source: Wikimedia Commons, CC BY-SA 4.0.]]
'''Biological nanopores''' is part of the Nanopore Wiki learning path. Biological nanopores are protein or macromolecular pores that provide reproducible nanoscale sensing structures.
'''Biological nanopores''' is part of the Nanopore Wiki learning path. Biological nanopores are protein or macromolecular pores that provide reproducible nanoscale sensing structures.



Revision as of 16:47, 2 July 2026

Lipid bilayers are commonly used to support biological nanopores. Source: Wikimedia Commons, CC BY-SA 4.0.

Biological nanopores is part of the Nanopore Wiki learning path. Biological nanopores are protein or macromolecular pores that provide reproducible nanoscale sensing structures.

Core concepts

  • Examples include alpha-hemolysin, MspA, CsgG, and engineered pore variants.
  • Their defined structures enable precise sensing regions and mutation engineering.
  • They often require membranes, suitable buffers, and careful protein handling.
  • Commercial sequencing pores combine pore proteins with motors and integrated flow cells.

Selection logic

Step Description
1 Define whether the target is DNA, RNA, protein, peptide, or small molecule.
2 Match pore constriction, charge environment, and stability to the target.
3 Check available mutations, adapters, or recognition sites.
4 Validate insertion, single-pore state, and target-specific events.

Typical applications

  • Nanopore sequencing.
  • Single-molecule recognition and biosensing.
  • Mechanistic studies of pore-analyte interactions.

Common pitfalls

  • Assuming a pore optimized for sequencing is ideal for every sensing task.
  • Ignoring protein storage, membrane composition, and insertion side.
  • Over-interpreting rare events without controls and repeats.

References