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[[File:Nanopore_sequencing_principle.png|thumb|right|360px|Principle of nanopore sequencing. Source: Wikimedia Commons, DBCLS, CC BY 4.0.]]
[[File:Nanopore_sequencing_principle.png|thumb|right|360px|link=https://www.nanopore.net/index.php?curid=2|Principle of nanopore sequencing. Source: Wikimedia Commons, DBCLS, CC BY 4.0.]]
<div style="font-size:188%; line-height:1.2; margin-bottom:0.25em;">Welcome to Nanopore Wiki</div>
<div style="font-size:188%; line-height:1.2; margin-bottom:0.25em;">Welcome to Nanopore Wiki</div>
<div style="font-size:108%; max-width:58em;">A knowledge base and science outreach site for nanopore technology, nanopore sequencing, single-molecule sensing, bioinformatics workflows, instruments, and frontier research.</div>
<div style="font-size:108%; max-width:58em;">A knowledge base and science outreach site for nanopore technology, nanopore sequencing, single-molecule sensing, bioinformatics workflows, instruments, and frontier research.</div>
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Nanopores are nanoscale openings that allow ions or molecules to pass through a membrane or solid-state material. When a molecule moves through or near a nanopore, it can change an electrical current, ion flow, or another measurable signal. These signal changes can be used to study DNA, RNA, proteins, small molecules, and other biological or chemical systems at single-molecule scale.
Nanopore methods matter because they can connect molecular events with real-time measurements. In sequencing, long DNA or RNA molecules pass through a pore and generate signals that can be converted into sequence information. In sensing, changes in current or other signals can reveal molecular size, charge, structure, binding, or chemical modification.


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== Start Here ==
== Start Here ==
* [[Nanopore technology]]
* [[Nanopore technology]] - principles, pore types, signals, and measurement concepts.
* [[Nanopore sequencing]]
* [[Nanopore sequencing]] - how DNA and RNA sequencing with nanopores works.
* [[Single-molecule detection]]
* [[Single-molecule detection]] - how nanopores can detect individual molecules.
* [[Bioinformatics]]
* [[Bioinformatics]] - basecalling, read mapping, assembly, variants, and quality control.
* [[Glossary]]
* [[Glossary]] - concise definitions of common terms.


Nanopores are nanoscale pores that can be used to observe molecules through changes in electrical current, ion flow, or other measurable signals. This makes them useful for sequencing, molecular sensing, and real-time analysis.
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== Why It Matters ==
* Long reads can span repeats, structural variants, and complex genomic regions.
* Real-time analysis can support rapid decisions in field, clinical, and laboratory settings.
* Portable instruments make sequencing and sensing possible outside large sequencing centers.
* Direct molecular measurements can preserve information about RNA, base modifications, or molecular context.


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== Latest Progress ==
{{:Latest Progress}}
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== Research Topics ==
== Applications ==
* [[Long-read sequencing]]
* Public health surveillance and pathogen genomics
* [[Direct RNA sequencing]]
* Clinical and infectious disease research
* [[Epigenetic modification detection]]
* Environmental DNA and biodiversity monitoring
* [[Pathogen detection]]
* Microbiome and metagenomic analysis
* [[Environmental DNA]]
* Agriculture, food safety, and biosecurity
* [[Protein nanopore sensing]]
* Structural variation, genome assembly, RNA analysis, and epigenetic modification detection


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== Tools and Workflows ==
== Tools and Workflows ==
* [[MinION]]
* [[MinION]] and other portable sequencing instruments
* [[Oxford Nanopore]]
* [[Oxford Nanopore]] platforms and chemistry concepts
* [[Basecalling]]
* Basecalling from raw signal to sequence reads
* [[Read mapping]]
* Read mapping, variant calling, genome assembly, and quality control
* [[Variant calling]]
* Experimental design, metadata, reproducibility, and responsible interpretation
* [[Genome assembly]]
 
* [[Quality control]]
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== Applications ==
== Latest Progress ==
* Public health surveillance
{{:Latest Progress}}
* Clinical and pathogen genomics
* Agriculture and food safety
* Environmental monitoring
* Microbiome and metagenomics
* Structural variant analysis


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== Contribute ==
== Contribute ==
Add new pages, improve definitions, summarize recent papers, and keep methods pages up to date. For new progress items, edit [[Latest Progress]] so the homepage updates automatically.
Nanopore Wiki welcomes careful contributions: clear definitions, reliable sources, reproducible methods, and balanced summaries of recent research. New progress items should include a date, a concise explanation, and a source when available.
 
== Site Notes ==
Nanopore Wiki is an educational and knowledge-organization project. Its pages are intended for science communication and general technical reference, and do not replace professional medical, legal, regulatory, or commercial advice.


== References ==
== References ==

Revision as of 13:01, 29 June 2026

Principle of nanopore sequencing. Source: Wikimedia Commons, DBCLS, CC BY 4.0.
Welcome to Nanopore Wiki
A knowledge base and science outreach site for nanopore technology, nanopore sequencing, single-molecule sensing, bioinformatics workflows, instruments, and frontier research.

Nanopores are nanoscale openings that allow ions or molecules to pass through a membrane or solid-state material. When a molecule moves through or near a nanopore, it can change an electrical current, ion flow, or another measurable signal. These signal changes can be used to study DNA, RNA, proteins, small molecules, and other biological or chemical systems at single-molecule scale.

Nanopore methods matter because they can connect molecular events with real-time measurements. In sequencing, long DNA or RNA molecules pass through a pore and generate signals that can be converted into sequence information. In sensing, changes in current or other signals can reveal molecular size, charge, structure, binding, or chemical modification.

Start Here

Why It Matters

  • Long reads can span repeats, structural variants, and complex genomic regions.
  • Real-time analysis can support rapid decisions in field, clinical, and laboratory settings.
  • Portable instruments make sequencing and sensing possible outside large sequencing centers.
  • Direct molecular measurements can preserve information about RNA, base modifications, or molecular context.

Applications

  • Public health surveillance and pathogen genomics
  • Clinical and infectious disease research
  • Environmental DNA and biodiversity monitoring
  • Microbiome and metagenomic analysis
  • Agriculture, food safety, and biosecurity
  • Structural variation, genome assembly, RNA analysis, and epigenetic modification detection

Tools and Workflows

  • MinION and other portable sequencing instruments
  • Oxford Nanopore platforms and chemistry concepts
  • Basecalling from raw signal to sequence reads
  • Read mapping, variant calling, genome assembly, and quality control
  • Experimental design, metadata, reproducibility, and responsible interpretation

Latest Progress

  • 2026-06-27 - Nanopore Wiki homepage launched with a portal-style layout for tracking nanopore technology, sequencing, tools, and research progress.



Contribute

Nanopore Wiki welcomes careful contributions: clear definitions, reliable sources, reproducible methods, and balanced summaries of recent research. New progress items should include a date, a concise explanation, and a source when available.

Site Notes

Nanopore Wiki is an educational and knowledge-organization project. Its pages are intended for science communication and general technical reference, and do not replace professional medical, legal, regulatory, or commercial advice.

References