Linked from

The 18 pages that link to Relativistic effect, each with the reason it gives.

• ActinideRelated: Relativistic effects alter orbital energies and help explain heavy-element configurations and chemistry.

• HalogenRelated: Such effects may alter the chemistry expected for the heaviest members of group 17.

• Atomic radiusRelated: Relativistic contraction alters the simple size expectations for some heavy atoms.

• Periodic table extensionRelated: Relativistic electron effects may disrupt familiar periodic trends in the heaviest elements.

• Inert-pair effectRelated: Relativistic contraction of heavy atoms’ s orbitals contributes to the pair’s stabilization.

• Element 119Related: Strong nuclear charge could modify element 119’s outer-electron behavior beyond simple periodic trends.

• Group 11 elementRelated: Relativistic effects help explain gold's color and some unusual properties of heavy Group 11 atoms.

• MeitneriumRelated: Strong nuclear charge may alter meitnerium's electron structure and chemical behavior.

• Period 7 elementRelated: Relativistic effects alter orbital energies in the heaviest period 7 atoms.

• UntriniliumRelated: These effects complicate simple extrapolation of element 130’s bonding and periodic placement.

• UnbienniumRelated: Such effects would strongly influence any actual chemistry of element 129.

• UnbiseptiumRelated: At very high nuclear charge, relativistic effects complicate predictions of unbiseptium’s chemistry.

• UnhexseptiumRelated: Such effects may strongly alter the chemistry predicted for very high atomic numbers.

• UnquadenniumRelated: Such effects may make element 149's chemistry depart from simple periodic trends.

• UnquadoctiumRelated: If element 148 exists, relativistic effects could make its chemistry depart from simple periodic trends.