Biohacking is a grass-roots movement that brings the knowledge and experimen-tal practice of biological sciences to a non-specialized public. This article seeks to identify biohacking as a type of transhumanism and not just as a movement influenced by the latter. To do so, it examines the constitution, history, practi-ces, and moral codes of the biohacker movement. Subsequently, it compares the results with the definition of transhumanism, finding points of similarity in the hypotheses of both, as well as an (...) adaptation of transhumanist values to biohac-king. It concludes by identifying biohacking as a type of transhumanism. (shrink)

Purpose/Background. The present research focuses on the debate on transhumanism/bioconservatism from the perspective of empirical bioethics, that is, making use of em-pirical evidence in the process of moral reasoning. Its objective is to propose a metho-dological guide for the approach and resolution of moral problems concerning human enhancement. Methodology/Approach. The method Step-wise Ethical Human Enhancemet (SWEH) is proposed. It is a guide consisting of 11 questions that are the result of the adaptation of the guidelines for identifying a human enhancement (...) procedure as ethical developed by Julian Savulescu to the method of Step-wise Empirical Contributions elaborated by Pascal Borry. An applicative example on the morality of biohacking RFID implants is provided. Results/Findings. SWEH proposes that human enhancement procedures might be approached as specific problems and that the identified moral norm might be rewritten as a descriptive proposition that serves as a hypothesis that will be evaluated in the light of empirical evidence. The evaluation of the proposition, and thus of moral reasoning, will be done with the help of the information gathered by the 11 questions. Discussion/Conclusions/Contributions. SWEH can serve to provide a first answer on the morality of a specific human enhancement procedure, but not an absolute one, as the result may vary depending on the information obtained in the future. It also highli-ghts gaps in empirical research related to the procedure it addresses. The method is a first methodological guide that could be revised and improved. (shrink)

Pandemics have been suggested as global risks many times, but it has been shown that the probability of human extinction due to one pandemic is small, as it will not be able to affect and kill all people, but likely only half, even in the worst cases. Assuming that the probability of the worst pandemic to kill a person is 0.5, and assuming linear interaction between different pandemics, 30 strong pandemics running simultaneously will kill everyone. Such situations cannot happen naturally, (...) but because biotechnology is developing analogously to Moore’s law, it may become possible in the near future (10-50 years from now), because of biohackers, CRISPR, bioprinters, AI-assisted DNA-programing, and weapons of “knowledge-enabled mass destruction” published on the Internet. It could also happened in case of large-scale biological war, or if a rogue country released its entire biological arsenal simultaneously. We also will address other scenarios and risk increasing factors as well as mitigation and adaptation strategies. (shrink)