Electrolyte Leakage %
Compute electrolyte leakage as initial conductivity divided by boiled conductivity times 100, requiring a positive boiled conductivity and an initial conductivity that does not exceed it.
Description
Compute electrolyte leakage as initial conductivity divided by boiled conductivity times 100, requiring a positive boiled conductivity and an initial conductivity that does not exceed it.
Electrolyte Leakage % is a focused biology tool that compute electrolyte leakage as initial conductivity divided by boiled conductivity times 100, requiring a positive boiled conductivity and an initial conductivity that does not exceed it. It calculates locally from the values you enter and exposes the result without changing the source observations.1
When to use Electrolyte Leakage %
Use Electrolyte Leakage % when you need to compute electrolyte leakage as initial conductivity divided by boiled conductivity times 100, requiring a positive boiled conductivity and an initial conductivity that does not exceed it. Enter Boiled conductivity and Initial conductivity using the definitions and units below so the result can be reproduced.
- Boiled conductivity
- Conductivity after boiling in microsiemens; must be greater than zero.
- Initial conductivity
- Initial conductivity in microsiemens; must not exceed the boiled conductivity.
How Electrolyte Leakage % calculates the result
The published tool contract uses this rule: Compute electrolyte leakage as initial conductivity divided by boiled conductivity times 100, requiring a positive boiled conductivity and an initial conductivity that does not exceed it.1
- Electrolyte leakage
- Electrolyte leakage percentage between 0 and 100.
Limitations of Electrolyte Leakage %
A ratio or percentage can conceal the scale of its numerator and denominator and becomes sensitive to measurement error when the denominator is small.
Alternative or Complementary measurements
Retain the original Boiled conductivity and Initial conductivity values and their units alongside the result. Leakage Two Step is useful when you instead need to compute the electrolyte leakage ratio as the initial conductivity divided by the maximum conductivity measured after a second boil; the result is a fraction between zero and one. Anthocyanin Content provides another view by helping you compute anthocyanin content in micrograms per gram of dry mass as the corrected absorbance divided by the dry mass times an extinction scale factor that defaults to one hundred; apply any baseline correction to the absorbance upstream before passing it in.
References
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Plant physiology — Wikipedia contributors
Similar or alternative tools
- Leakage Two Step
Compute the electrolyte leakage ratio as the initial conductivity divided by the maximum conductivity measured after a second boil; the result is a fraction between zero and one.
- Anthocyanin Content
Compute anthocyanin content in micrograms per gram of dry mass as the corrected absorbance divided by the dry mass times an extinction scale factor that defaults to one hundred; apply any baseline correction to the absorbance upstream before passing it in.
- RWC Percent
Compute relative water content as (fresh mass - dry mass) / (turgid mass - dry mass) times 100, requiring the turgid mass to exceed the dry mass and the fresh mass to lie between them.