A table summarising the key concepts and studies related to toxicological risk assessment, mixture toxicity, selective toxicity, historical research, and the principles of toxicology.
Category . | Concept/study . | Details . | References . |
---|---|---|---|
Mixture toxicity | Additivity | Substances can have additive effects by targeting the same molecular mechanism in a cell. Example: dioxin-like compounds | 4 |
Enhancer substance | Enhancer substances amplify the effects of a driver substance by increasing its concentration at the target site | 4 | |
Selective toxicity | Herbicide application | Selective herbicides must damage unwanted plants while minimizing harm to crop tissues. Recent advancements focus on improving selective toxicity for economic benefits | 5 |
Historical research | Moore’s research (1917) | Investigated insect fumigants to assess toxic effects | 6 |
Tattersfield et al. (1920 to 1927) | Extensive studies on contact insecticides and fumigants | 6 | |
Tilley and Schaffer (1926 to 1928) | Bacteriological research on toxic effects | 6 | |
Coulthard, Marshall, and Pyman (1930), Dohme, Cox, and Millar (1926), Klatman, Gatyas, and Shternov (1931) | Studies on chemical toxicity in various compounds | 6 | |
Morris and Stirk (1932) and Stiles and Rees (1935) | Research on fungicides and their toxic effects | 6 | |
Drug safety and breastfeeding | Evidence-based guidelines | Guidelines for drug transfer into breast milk and safety recommendations for nursing mothers and infants | 39–41 |
Ferguson’s principle | Framework for predicting and preventing drug-induced fatalities based on the quantitative relationship between chemical structure and drug toxicity | 18–20 | |
Toxicokinetics vs. toxicodynamics | Analogous to pharmacokinetics and pharmacodynamics | Toxicokinetics and toxicodynamics are similar to pharmacokinetics and pharmacodynamics but focus on toxicity and adverse effects. | 7 |
Principle of toxicology | Paracelsus’s principle | “The dose makes the poison” emphasises that the dose determines the toxicity of a substance | 8, 9 |
Mechanistic toxicology adaptation | Adapting Paracelsus’s principle to “The dose disrupts the pathway” to reflect that different doses impact various molecular pathways. Lower doses may affect different mechanisms compared to higher doses | 8, 9 | |
Advancements in risk assessment | Computational models and QSAR | Utilisations of computational models and QSARs to predict chemical toxicity and improve risk assessment | 15–17, 52 |
Toxicokinetics and toxicodynamics integration | Application of toxicokinetics and toxicodynamics in understanding and predicting chemical toxicity and risk | 7 |
Category . | Concept/study . | Details . | References . |
---|---|---|---|
Mixture toxicity | Additivity | Substances can have additive effects by targeting the same molecular mechanism in a cell. Example: dioxin-like compounds | 4 |
Enhancer substance | Enhancer substances amplify the effects of a driver substance by increasing its concentration at the target site | 4 | |
Selective toxicity | Herbicide application | Selective herbicides must damage unwanted plants while minimizing harm to crop tissues. Recent advancements focus on improving selective toxicity for economic benefits | 5 |
Historical research | Moore’s research (1917) | Investigated insect fumigants to assess toxic effects | 6 |
Tattersfield et al. (1920 to 1927) | Extensive studies on contact insecticides and fumigants | 6 | |
Tilley and Schaffer (1926 to 1928) | Bacteriological research on toxic effects | 6 | |
Coulthard, Marshall, and Pyman (1930), Dohme, Cox, and Millar (1926), Klatman, Gatyas, and Shternov (1931) | Studies on chemical toxicity in various compounds | 6 | |
Morris and Stirk (1932) and Stiles and Rees (1935) | Research on fungicides and their toxic effects | 6 | |
Drug safety and breastfeeding | Evidence-based guidelines | Guidelines for drug transfer into breast milk and safety recommendations for nursing mothers and infants | 39–41 |
Ferguson’s principle | Framework for predicting and preventing drug-induced fatalities based on the quantitative relationship between chemical structure and drug toxicity | 18–20 | |
Toxicokinetics vs. toxicodynamics | Analogous to pharmacokinetics and pharmacodynamics | Toxicokinetics and toxicodynamics are similar to pharmacokinetics and pharmacodynamics but focus on toxicity and adverse effects. | 7 |
Principle of toxicology | Paracelsus’s principle | “The dose makes the poison” emphasises that the dose determines the toxicity of a substance | 8, 9 |
Mechanistic toxicology adaptation | Adapting Paracelsus’s principle to “The dose disrupts the pathway” to reflect that different doses impact various molecular pathways. Lower doses may affect different mechanisms compared to higher doses | 8, 9 | |
Advancements in risk assessment | Computational models and QSAR | Utilisations of computational models and QSARs to predict chemical toxicity and improve risk assessment | 15–17, 52 |
Toxicokinetics and toxicodynamics integration | Application of toxicokinetics and toxicodynamics in understanding and predicting chemical toxicity and risk | 7 |
A table summarising the key concepts and studies related to toxicological risk assessment, mixture toxicity, selective toxicity, historical research, and the principles of toxicology.
Category . | Concept/study . | Details . | References . |
---|---|---|---|
Mixture toxicity | Additivity | Substances can have additive effects by targeting the same molecular mechanism in a cell. Example: dioxin-like compounds | 4 |
Enhancer substance | Enhancer substances amplify the effects of a driver substance by increasing its concentration at the target site | 4 | |
Selective toxicity | Herbicide application | Selective herbicides must damage unwanted plants while minimizing harm to crop tissues. Recent advancements focus on improving selective toxicity for economic benefits | 5 |
Historical research | Moore’s research (1917) | Investigated insect fumigants to assess toxic effects | 6 |
Tattersfield et al. (1920 to 1927) | Extensive studies on contact insecticides and fumigants | 6 | |
Tilley and Schaffer (1926 to 1928) | Bacteriological research on toxic effects | 6 | |
Coulthard, Marshall, and Pyman (1930), Dohme, Cox, and Millar (1926), Klatman, Gatyas, and Shternov (1931) | Studies on chemical toxicity in various compounds | 6 | |
Morris and Stirk (1932) and Stiles and Rees (1935) | Research on fungicides and their toxic effects | 6 | |
Drug safety and breastfeeding | Evidence-based guidelines | Guidelines for drug transfer into breast milk and safety recommendations for nursing mothers and infants | 39–41 |
Ferguson’s principle | Framework for predicting and preventing drug-induced fatalities based on the quantitative relationship between chemical structure and drug toxicity | 18–20 | |
Toxicokinetics vs. toxicodynamics | Analogous to pharmacokinetics and pharmacodynamics | Toxicokinetics and toxicodynamics are similar to pharmacokinetics and pharmacodynamics but focus on toxicity and adverse effects. | 7 |
Principle of toxicology | Paracelsus’s principle | “The dose makes the poison” emphasises that the dose determines the toxicity of a substance | 8, 9 |
Mechanistic toxicology adaptation | Adapting Paracelsus’s principle to “The dose disrupts the pathway” to reflect that different doses impact various molecular pathways. Lower doses may affect different mechanisms compared to higher doses | 8, 9 | |
Advancements in risk assessment | Computational models and QSAR | Utilisations of computational models and QSARs to predict chemical toxicity and improve risk assessment | 15–17, 52 |
Toxicokinetics and toxicodynamics integration | Application of toxicokinetics and toxicodynamics in understanding and predicting chemical toxicity and risk | 7 |
Category . | Concept/study . | Details . | References . |
---|---|---|---|
Mixture toxicity | Additivity | Substances can have additive effects by targeting the same molecular mechanism in a cell. Example: dioxin-like compounds | 4 |
Enhancer substance | Enhancer substances amplify the effects of a driver substance by increasing its concentration at the target site | 4 | |
Selective toxicity | Herbicide application | Selective herbicides must damage unwanted plants while minimizing harm to crop tissues. Recent advancements focus on improving selective toxicity for economic benefits | 5 |
Historical research | Moore’s research (1917) | Investigated insect fumigants to assess toxic effects | 6 |
Tattersfield et al. (1920 to 1927) | Extensive studies on contact insecticides and fumigants | 6 | |
Tilley and Schaffer (1926 to 1928) | Bacteriological research on toxic effects | 6 | |
Coulthard, Marshall, and Pyman (1930), Dohme, Cox, and Millar (1926), Klatman, Gatyas, and Shternov (1931) | Studies on chemical toxicity in various compounds | 6 | |
Morris and Stirk (1932) and Stiles and Rees (1935) | Research on fungicides and their toxic effects | 6 | |
Drug safety and breastfeeding | Evidence-based guidelines | Guidelines for drug transfer into breast milk and safety recommendations for nursing mothers and infants | 39–41 |
Ferguson’s principle | Framework for predicting and preventing drug-induced fatalities based on the quantitative relationship between chemical structure and drug toxicity | 18–20 | |
Toxicokinetics vs. toxicodynamics | Analogous to pharmacokinetics and pharmacodynamics | Toxicokinetics and toxicodynamics are similar to pharmacokinetics and pharmacodynamics but focus on toxicity and adverse effects. | 7 |
Principle of toxicology | Paracelsus’s principle | “The dose makes the poison” emphasises that the dose determines the toxicity of a substance | 8, 9 |
Mechanistic toxicology adaptation | Adapting Paracelsus’s principle to “The dose disrupts the pathway” to reflect that different doses impact various molecular pathways. Lower doses may affect different mechanisms compared to higher doses | 8, 9 | |
Advancements in risk assessment | Computational models and QSAR | Utilisations of computational models and QSARs to predict chemical toxicity and improve risk assessment | 15–17, 52 |
Toxicokinetics and toxicodynamics integration | Application of toxicokinetics and toxicodynamics in understanding and predicting chemical toxicity and risk | 7 |
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