The A1 Collaboration at the Institute of Nuclear Physics at Johannes Gutenberg University Mainz, in collaboration with researchers from China and Japan, has achieved a significant milestone in nuclear physics. By utilizing the electron scattering technique at the Mainz Microtron accelerator, the team successfully produced the rare hydrogen-6 isotope, also known as 6H. This isotope, with one proton and five neutrons, offers valuable insights into the binding of neutrons in light nuclei. Led by Professor Josef Pochodzalla, the experiment was instrumental in challenging conventional nuclear interaction models. The experiment focused on addressing a fundamental question in nuclear physics regarding the stability of nuclei with high neutron-to-proton ratios. Through precise measurements and analysis, the researchers were able to confirm a low ground-state energy for hydrogen-6, indicating unexpected neutron interactions within the nucleus. This discovery not only challenges existing theoretical frameworks but also enhances our understanding of neutron-rich atomic nuclei. The research campaign, which spanned four weeks, demonstrated the feasibility of creating and detecting hydrogen-6 through electron scattering. The successful operation of high-resolution spectrometers allowed for the accurate detection of multiple particles with minimal background noise. By observing approximately one hydrogen-6 event per day, the team validated predictions and highlighted the importance of this groundbreaking experiment in advancing nuclear physics research. Overall, this experiment showcases the significance of international research collaborations and the cutting-edge capabilities of facilities like the Mainz Microtron accelerator. The results not only contribute to the field of nuclear physics but also lay the groundwork for further exploration of neutron-rich nuclei and their structural properties.