Chemical Behavior & Oxidation States
Tin exhibits chemical reactivity characteristic of the post transition family, governed by an electronegativity of 1.96 and standard valence interactions.
Sn

Tin (Sn) is an element with atomic number 50, classified as a post transition. Positioned in Period 5, Group 14, and P-block, its chemical and physical profile is defined by its electron configuration ([Kr]4d¹⁰5s²5p²) and periodic trends.
Simulate concentric quantum energy levels, observe valence electron spins, and examine live atomic clouds in full 3D.
Experiment with Aufbau subshell ordering, explore orbital occupancy, and analyze quantum configuration exceptions.
Tin exhibits chemical reactivity characteristic of the post transition family, governed by an electronegativity of 1.96 and standard valence interactions.
Tin is utilized in industrial fabrication, materials engineering, electronic manufacturing, and advanced laboratory research based on its specific thermodynamic properties.
Tin does not play a prominent biological role in human biochemistry, existing primarily as a trace element or mineral component in natural ecosystems.
Elements like Tin are synthesized through stellar nucleosynthesis and supernovae r-processes. On Earth, Tin is concentrated in specific ore deposits or synthesized in nuclear accelerators.
Tin (Sn) has an atomic number of 50 and a standard atomic mass of 118.71 u. It is positioned in Period 5, Group 14, in the P-block, and is classified within the Post-Transition Metal category.
The ground-state electron configuration of Tin is [Kr]4d¹⁰5s²5p². Its 50 electrons are distributed across 5 principal energy levels (2, 8, 18, 18, 4).
Tin follows standard Aufbau principle orbital filling. Transition metals and heavy elements optimize their shell filling based on subshell exchange energy and electrostatic stability.
Tin is utilized in industrial fabrication, materials engineering, electronic manufacturing, and advanced laboratory research based on its specific thermodynamic properties.