Jump to content

Platforms: Difference between revisions

From Nanopore Wiki
Expand Nanopore Wiki source page with structured educational content
 
Expand Nanopore Wiki source page with structured educational content
 
(5 intermediate revisions by the same user not shown)
Line 2: Line 2:
<translate>
<translate>
<!--T:1-->
<!--T:1-->
[[File:Nanopore_sequencing_principle.png|thumb|right|320px|Nanopore sequencing principle. Openly licensed schematic used as a general visual guide.]]
[[File:MinION_portable_sequencer.png|thumb|right|320px|Portable nanopore platforms connect flow cells, electronics, and real-time analysis.]]
'''Platforms''' is part of the Nanopore Wiki learning path. Nanopore platforms range from custom single-pore electrophysiology rigs to commercial sequencing instruments and integrated sensing chips.
'''Platforms''' is part of the Nanopore Wiki learning path. Nanopore platforms range from custom single-pore electrophysiology rigs to commercial sequencing instruments and integrated sensing chips.


Line 13: Line 13:


<!--T:3-->
<!--T:3-->
== Scientific basis ==
* A platform includes pore chemistry, flow cell or chamber, electronics, software, and consumables.
* Commercial systems prioritize robust workflows and throughput.
* Interpretations should be tied to measurable quantities, experimental controls, and documented analysis settings.
* Claims should distinguish direct observations from downstream inference.
<!--T:4-->
== Platform selection ==
== Platform selection ==
{| class="wikitable np-knowledge-table"
{| class="wikitable np-knowledge-table"
Line 31: Line 38:
|}
|}


<!--T:4-->
<!--T:5-->
== Typical applications ==
== Typical applications ==
* Portable sequencing.
* Portable sequencing.
Line 37: Line 44:
* Device engineering and sensor development.
* Device engineering and sensor development.


<!--T:5-->
<!--T:6-->
== Common pitfalls ==
== Quality checks ==
* Record platform, pore or flow-cell type, chemistry, voltage or acquisition settings, and software versions.
* Use negative controls, positive controls, and replicate measurements where the claim depends on specificity.
* Report limitations such as noise, bias, sample degradation, pore instability, or model-dependent analysis.
* Do not treat vendor specifications as a substitute for application-specific validation.
 
<!--T:7-->
== Interpretation limits ==
* Choosing an instrument before defining the scientific question.
* Choosing an instrument before defining the scientific question.
* Ignoring consumable availability, model versions, and software requirements.
* Ignoring consumable availability, model versions, and software requirements.
* Treating marketing specifications as experimental guarantees.
* A single result should not be generalized beyond the sample, protocol, instrument state, and analysis pipeline used.
* Medical, legal, regulatory, or commercial decisions require domain-specific validation beyond this educational summary.


<!--T:6-->
<!--T:8-->
== Related pages ==
== Related pages ==
* [[Oxford Nanopore]]
* [[Oxford Nanopore]]
Line 50: Line 65:
* [[Experimental workflows]]
* [[Experimental workflows]]


<!--T:7-->
<!--T:9-->
== References ==
== References ==
* [https://en.wikipedia.org/wiki/Oxford_Nanopore_Technologies Oxford Nanopore Technologies]
* [https://en.wikipedia.org/wiki/Oxford_Nanopore_Technologies Oxford Nanopore Technologies]

Latest revision as of 09:24, 15 July 2026

Portable nanopore platforms connect flow cells, electronics, and real-time analysis.

Platforms is part of the Nanopore Wiki learning path. Nanopore platforms range from custom single-pore electrophysiology rigs to commercial sequencing instruments and integrated sensing chips.

Core concepts

  • A platform includes pore chemistry, flow cell or chamber, electronics, software, and consumables.
  • Commercial systems prioritize robust workflows and throughput.
  • Custom rigs prioritize flexibility and mechanistic control.
  • Platform choice determines file formats, metadata, controls, and analysis pipelines.

Scientific basis

  • A platform includes pore chemistry, flow cell or chamber, electronics, software, and consumables.
  • Commercial systems prioritize robust workflows and throughput.
  • Interpretations should be tied to measurable quantities, experimental controls, and documented analysis settings.
  • Claims should distinguish direct observations from downstream inference.

Platform selection

Step Description
1 Define whether the goal is sequencing, sensing, method development, or teaching.
2 Compare throughput, portability, cost, consumables, and required expertise.
3 Check data formats and supported analysis tools.
4 Design controls around platform-specific failure modes.

Typical applications

  • Portable sequencing.
  • Laboratory-scale single-molecule experiments.
  • Device engineering and sensor development.

Quality checks

  • Record platform, pore or flow-cell type, chemistry, voltage or acquisition settings, and software versions.
  • Use negative controls, positive controls, and replicate measurements where the claim depends on specificity.
  • Report limitations such as noise, bias, sample degradation, pore instability, or model-dependent analysis.
  • Do not treat vendor specifications as a substitute for application-specific validation.

Interpretation limits

  • Choosing an instrument before defining the scientific question.
  • Ignoring consumable availability, model versions, and software requirements.
  • A single result should not be generalized beyond the sample, protocol, instrument state, and analysis pipeline used.
  • Medical, legal, regulatory, or commercial decisions require domain-specific validation beyond this educational summary.

References