Have a personal or library account? Click to login
A tendency to maintain a stable level of sulfane sulfur under various environmental or culture conditions Cover

A tendency to maintain a stable level of sulfane sulfur under various environmental or culture conditions

Open Access
|Dec 2025

Figures & Tables

Figure 1.

Synthesis and transformation of sulfane sulfur in biological systemsAbbreviations: S - sulfane sulfur atom (marked in red); (1) - S-sulfuration reaction; (2) - S-nitrosylation reaction; CBS - cystathionine β-synthase; CTH - cystathionine γ-lyase; MPST - 3-mercaptopyruvate sulfurtransferase; CDO - cysteine dioxygenase; RNS - reactive nitrogen species; ROS - reactive oxygen species
Synthesis and transformation of sulfane sulfur in biological systemsAbbreviations: S - sulfane sulfur atom (marked in red); (1) - S-sulfuration reaction; (2) - S-nitrosylation reaction; CBS - cystathionine β-synthase; CTH - cystathionine γ-lyase; MPST - 3-mercaptopyruvate sulfurtransferase; CDO - cysteine dioxygenase; RNS - reactive nitrogen species; ROS - reactive oxygen species

Figure 2.

The level of sulfane sulfur in human and animal tissues. Data from published experimental works cited in Table 1 were used in Figure 2. The bars correspond to the mean value ± SD (

 standard deviation) of sulfane sulfur level expressed in nmoles of SCN− per mg of protein, from three or more determinations in at least three repetitions
The level of sulfane sulfur in human and animal tissues. Data from published experimental works cited in Table 1 were used in Figure 2. The bars correspond to the mean value ± SD ( standard deviation) of sulfane sulfur level expressed in nmoles of SCN− per mg of protein, from three or more determinations in at least three repetitions

Figure 3.

The level of sulfane sulfur in human and animal cell cultures. Data from published experimental works cited in Table 2 were used in Figure 3. The bars correspond to the mean value ± SD (

 standard deviation) of sulfane sulfur level in a particular cell culture, expressed in nmoles of SCN− per mg of protein, from at least three independent experiments, with three or more determinations in each
The level of sulfane sulfur in human and animal cell cultures. Data from published experimental works cited in Table 2 were used in Figure 3. The bars correspond to the mean value ± SD ( standard deviation) of sulfane sulfur level in a particular cell culture, expressed in nmoles of SCN− per mg of protein, from at least three independent experiments, with three or more determinations in each

Figure 4.

The level of sulfane sulfur in Rana ridibunda tissues in the fall and spring seasons. Data from published experimental works [53, 54] were used in Figure 4. The bars correspond to the mean value ± SD (

 standard deviation) of sulfane sulfur level expressed in nmoles of SCN− per mg of protein, from three or more determinations in at least three repetitions
The level of sulfane sulfur in Rana ridibunda tissues in the fall and spring seasons. Data from published experimental works [53, 54] were used in Figure 4. The bars correspond to the mean value ± SD ( standard deviation) of sulfane sulfur level expressed in nmoles of SCN− per mg of protein, from three or more determinations in at least three repetitions

Figure 5.

The level of sulfane sulfur in selected tissues of male and female mice. Data from published experimental work [51] were used in Figure 5. The bars correspond to the mean value ± SD (

 standard deviation) of sulfane sulfur level expressed in nmoles of SCN− per mg of protein, from three or more determinations in at least three repetitions
The level of sulfane sulfur in selected tissues of male and female mice. Data from published experimental work [51] were used in Figure 5. The bars correspond to the mean value ± SD ( standard deviation) of sulfane sulfur level expressed in nmoles of SCN− per mg of protein, from three or more determinations in at least three repetitions

The list of human and animal tissues in which the level of sulfane sulfur was determined by the method of Wood_ The given tissue and the reference referring to it are marked with the same number of asterisks

TissuesReferences
Human Liver, Brain[44]
Rat Liver*, Heart and Kidney***[45], *[46], **[47]
Guinea pig Liver[45]
Mouse Liver*,****, Kidney**,****, Heart****, Spleen****, Brain stem and cortex****[48], **[49], ***[50], ****[51]
Rana temporaria Liver, Kidney, Gonads, Brain, Heart[52]
Rana ridibunda Liver, Kidney, Brain, Heart, Testes, Skeletal muscles[53], [54], [55]

The level of sulfane sulfur in various frog tissues exposed to heavy metal ions in water — based on results published in [55]

SULFANE SULFUR % of control
Pb2+Cd2+Hg2+
Brain151.1137.3117.3
Liver91.586.894.7
Kidney133.2109.591.7
HeartNot changedNot changedNot changed
Skeletal muscleNot changedNot changed120.3
TestesNot changed88.5114.6

Human and animal cells in which the level of sulfane sulfur was determined by the method of Wood

CellsReferences

Mouse astrocytes[56]

Mouse cell lines[57]
  • MNuMG

  • 4T1

  • MEF

  • B16-F1

  • WT

  • Naglu−/−

[58]
J774A.1[59]

Rat cell line
H9c2[57]

Human cell lines
  • Caco-2

  • HEK

  • MG-63

[57]
  • U87MG

  • SHSY5Y

[60]
MCF-7[61]
Language: English
Page range: 185 - 194
Submitted on: Jun 9, 2025
|
Accepted on: Oct 30, 2025
|
Published on: Dec 25, 2025
In partnership with: Paradigm Publishing Services
Publication frequency: 1 issue per year

© 2025 Halina Jurkowska, Leszek Rydz, Marta Kaczor-Kamińska, Maria Wróbel, published by Hirszfeld Institute of Immunology and Experimental Therapy
This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 License.