Linked from

The 77 pages that link to Toxicology, each with the reason it gives.

• ChloropicrinNarrower topic: Toxicology examines chloropicrin’s dose-dependent effects and routes of exposure.

• Laboratory mouseRelated: Mouse studies can reveal organ toxicity and dose-related effects before human testing.

• Acesulfame potassiumNarrower topic: Toxicological studies underpin the safety limits established for acesulfame K.

• OrpimentNarrower topic: Orpiment’s arsenic content makes toxicological risk central to its handling.

• Isocyanic acidNarrower topic: HNCO exposure raises questions about dose, biological targets, and health effects.

• Laboratory ratRelated: Rat studies help assess toxicity and organ damage before substances reach human trials.

• Methyl isocyanateNarrower topic: Toxicology investigates how methyl isocyanate exposure damages human health.

• Paris greenNarrower topic: Its risks are understood through the dose, route, and duration of arsenic exposure.

• ThalliumNarrower topic: Thallium’s severe effects make it a subject of clinical and environmental toxicology.

• BromoformNarrower topic: Toxicology explains why historical medicinal use of bromoform was abandoned.

• GalinstanNarrower topic: Galinstan’s appeal depends partly on comparing its hazards with mercury’s, not assuming it is harmless.

• Mathieu OrfilaNarrower topic: Orfila’s poison research helped shape this broader science.

• SolanineNarrower topic: Solanine toxicity is assessed through exposure, biological effects, and risk.

• 2,4-DinitrophenolNarrower topic: DNP is a classic example of toxicity caused by disruption of cellular energy metabolism.

• Alexander GettlerNarrower topic: Gettler brought this broader science into the specialized work of medicolegal investigation.

• Animal diseasesRelated: Toxins in feed, plants, or surroundings can cause disease without infection.

• Animal testing of cosmeticsNarrower topic: Cosmetic animal tests are one application of toxicological assessment.

• Appeal to natureNarrower topic: Natural origin neither proves safety nor danger; toxicology assesses exposure and effects directly.

• Bitter taste evolutionRelated: Bitter detection is often discussed as a sensory defense, not a reliable toxicity test.

• Conium maculatumNarrower topic: Toxicology explains how Conium alkaloids produce symptoms and guide clinical treatment.

• Disorders of Environmental OriginNarrower topic: It explains how environmental hazards produce injury and disease.

• Environmental biotechnologyRelated: Treatment must reduce hazards without creating harmful transformation products.

• Ocimum tenuiflorumRelated: Safety studies help determine risks that may depend on dose, preparation, and duration.

• ParaquatNarrower topic: Paraquat’s poisoning risks are central to decisions about handling and use.

• StrychnineNarrower topic: Strychnine is a classic subject for studying dose, mechanism, and toxic effects.

• Thomas NoguchiRelated: Toxicological findings can establish whether substances contributed to a death under investigation.

• Toxic injuryNarrower topic: Toxic injury is one outcome examined within this broader discipline.