The entire wiki reimagined as a visual magazine with video discovery · Watch your interests come alive
The entire wiki reimagined as a visual magazine with video discovery · Watch your interests come alive
The negative of binding energy per nucleon for the stable nuclides located along the bottom of the valley of stability. Iron-56 is about the most stab
The negative of binding energy per nucleon for the stable nuclides located along the bottom of the valley of stability. Iron-56 is about the most stable nuclide, and it is about the lowest point within the valley of stability.
The negative of binding energy per nucleon for nuclides with atomic mass number 125 plotted as a function of atomic number. The profile of binding ene
The negative of binding energy per nucleon for nuclides with atomic mass number 125 plotted as a function of atomic number. The profile of binding energy across the valley of stability is roughly a parabola. Tellurium-125 (52Te) is stable, while antimony-125 (51Sb) is unstable to β− decay.
Fragment of table of nuclides as seen on a monument in front of University of Warsaw's Centre of New Technologies, with the four elements named by or
Fragment of table of nuclides as seen on a monument in front of University of Warsaw's Centre of New Technologies, with the four elements named by or for Polish scientists shown in the title ("including Po, Ra, Cm, Cn") and below the table: polonium (84Po) discovered in 1898, radium (88Ra) discovered in 1898, curium (96Cm) discovered in 1944, copernicium (112Cn) discovered in 1996.