| Literature DB >> 29443894 |
Abstract
Current animal research ethics frameworks emphasise consequentialist ethics through cost-benefit or harm-benefit analysis. However, these ethical frameworks along with institutional animal ethics approval processes cannot satisfactorily decide when a given potential benefit is outweighed by costs to animals. The consequentialist calculus should, theoretically, provide for situations where research into a disease or disorder is no longer ethical, but this is difficult to determine objectively. Public support for animal research is also falling as demand for healthcare is rising. Democratisation of animal research could help resolve these tensions through facilitating ethical health consumerism or giving the public greater input into deciding the diseases and disorders where animal research is justified. Labelling drugs to disclose animal use and providing a plain-language summary of the role of animals may help promote public understanding and would respect the ethical beliefs of objectors to animal research. National animal ethics committees could weigh the competing ethical, scientific, and public interests to provide a transparent mandate for animal research to occur when it is justifiable and acceptable. Democratic processes can impose ethical limits and provide mandates for acceptable research while facilitating a regulatory and scientific transition towards medical advances that require fewer animals.Entities:
Keywords: animal ethics; animal ethics committees; consequentialism; democratisation; ethical consumerism; harm-benefit analysis; justification
Year: 2018 PMID: 29443894 PMCID: PMC5836036 DOI: 10.3390/ani8020028
Source DB: PubMed Journal: Animals (Basel) ISSN: 2076-2615 Impact factor: 2.752
Basic and preclinical animal research and first-in-class drugs approved by the United States Food and Drug Administration in 2016.
| Trade Name (Drug) | Disease | Animal Use |
|---|---|---|
| Defitelio (defibrotide sodium) | Hepatic veno-occlusive disease afterhaematopoietic stem cell transplantation * | Derived from the intestinal mucosa of pigs, defibrotide has been tested in several cell lines and in animals, such as mice [ |
| Exondys 51 (eteplirsen) | Duchenne muscular dystrophy * | Eteplirsen works by causing exon skipping to correct a genetic mutation. Animal studies on the approach used mice and dogs [ |
| Ocaliva (obeticholic acid) | Primary biliary cirrhosiss * | Obeticholic acid is a farnesoid-X receptor agonist. The farnesoid-X receptor was recommended as a drug target based on studies in rats [ |
| Spinraza (nusinersen) | Spinal muscular atrophy * | Nusinersen (like eteplirsen) works by modulating gene splicing to increase levels of a protein affected by an inherited genetic mutation. It was advanced to clinical trials based on work in mice and non-human primates [ |
| Venclexta (venetoclax) | Chronic lymphocytic leukemia * | Targets the Bcl2 receptor, based on basic research into apoptosis and mouse cancer models [ |
| Xiidra (lifitegrast) | Dry eye disease | Dry eye disease can affect animals like dogs, cats, and horses and animal models have provided evidence of an inflammatory role. Lifitegrast reduces inflammation by preventing LFA-1/ICAM-1 interactions and has been tested indogs and mice [ |
| Zinbryta (daclizumab) | Multiple sclerosis | Daclizumab was originally developed as immune suppressant for transplant patients and based on studies in mice showing mechanisms to suppress autoimmune responses. Human clinical studies facilitated its translation for multiple sclerosis [ |
| Zinplava (bezlotoxumab) | Clostridium difficile infection | Bezlotoxumab neutralises C. |
* “Orphan” or rare diseases affecting fewer than 200,000 Americans often have limited treatment options or no drug treatment available.