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The 108 pages that link to Nuclear shell model, each with the reason it gives.

• Synthetic elementRelated: Its predicted shell closures guide searches for unusually stable superheavy isotopes.

• UnbihexiumRelated: Shell effects are central to estimates of stability for a nucleus with 126 protons.

• UnquadpentiumRelated: Shell structure helps estimate whether superheavy nuclei near proton number 145 might be stabilized.

• Ben Roy MottelsonRelated: Mottelson’s work connected this single-particle picture with collective nuclear motion.

• LivermoriumRelated: Shell structure helps explain the stability patterns and decay behavior of livermorium isotopes.

• MeitneriumRelated: Meitnerium isotope measurements help test predictions about shell structure in very heavy nuclei.

• Nuclear structureRelated: It explains nuclear energy levels and the extra stability of closed shells.

• RoentgeniumRelated: Shell structure helps explain the relative stability and decay patterns of roentgenium isotopes.

• UnbiquadiumRelated: Predicted shell effects help estimate which element-124 isotopes might survive long enough to detect.

• UnpenthexiumRelated: Its predicted shell closures help estimate which element-156 isotopes could be relatively stable.

• HassiumRelated: Shell structure helps explain which hassium isotopes can be produced and how long they survive.

• NobeliumRelated: Nobelium isotopes test predictions about shell structure in very heavy nuclei.

• Period 7 elementRelated: It helps explain why some superheavy nuclei live longer than neighboring ones.

• UnbipentiumRelated: Shell structure helps estimate whether a nucleus with 125 protons could resist decay.

• UnbitriumRelated: Shell structure shapes predictions about the stability of nuclei near element 123.

• UnhexoctiumRelated: Its predicted shell closures influence estimates of stability for nuclei near 168.

• UnhexpentiumRelated: Nuclear shell effects help estimate whether nuclei near mass 456 could persist.

• UnpentquadiumRelated: Its predicted shell closures help estimate whether nuclei near mass 400 could resist fission.

• UnpentuniumRelated: Shell-model predictions inform estimates of stability at extreme proton numbers.

• UnquadquadiumRelated: Predictions about element 144’s stability depend on uncertain nuclear shell effects.

• UntrienniumRelated: It underpins predictions about which element 139 isotopes might be relatively stable.

• UntriniliumRelated: It helps estimate whether any nucleus with 130 protons could resist fission.

• UnbibiumRelated: Predicted shell closures influence estimates of unbibium’s possible stability.

• UnbienniumRelated: Its predicted shell effects help estimate the stability of nuclei near element 129.

• UnbioctiumRelated: Shell structure is used to estimate the stability of undiscovered element-128 nuclei.

• UnbiseptiumRelated: Predicted shell closures affect estimates of stability for extremely heavy nuclei.

• UnhexenniumRelated: Shell-model predictions help estimate which element-169 isotopes might have measurable lifetimes.

• UnhexquadiumRelated: Shell structure helps predict whether a nucleus near atomic number 164 might gain stability.

• UnhexseptiumRelated: It underlies predictions about the stability of hypothetical nuclei such as element 167.

• UnoctquadiumRelated: Its predicted shell closures help determine whether nuclei near 184 protons could resist decay.

• UnpentbiumRelated: Its predicted shell effects help estimate whether nuclei near element 125 could persist.

• UnpentniliumRelated: Shell effects shape predictions about the stability of nuclei as heavy as element 150.

• UnpentpentiumRelated: Its predicted shell effects shape estimates of whether nuclei as heavy as element 155 could persist.

• UnpenttriumRelated: Shell structure helps estimate whether a nucleus with 153 protons can exist.

• UnquadbiumRelated: Its predictions help estimate which unquadbium isotopes might resist decay.

• UnquadenniumRelated: Nuclear shell structure helps estimate whether a nucleus as heavy as element 149 could persist.

• UnquadhexiumRelated: Shell structure helps predict whether extremely heavy nuclei might survive long enough to detect.

• UnquadniliumRelated: Shell effects shape predictions about whether nuclei near element 140 could persist.

• UnquadoctiumRelated: Shell structure helps physicists estimate which undiscovered superheavy nuclei might be relatively stable.

• UnquadseptiumRelated: Its predicted shell closures help estimate whether a nucleus with 147 protons might be unusually stable.

• UnquadtriumRelated: Shell structure informs estimates of stability for nuclei near atomic number 143.

• UnquaduniumRelated: Its shell predictions help estimate whether a nucleus with 141 protons might be relatively stable.

• UnseptbiumRelated: Shell effects help estimate whether a nucleus with 172 protons could resist decay.

• UnsepttriumRelated: Its shell effects inform estimates of whether nuclei with 173 protons could persist.

• UntribiumRelated: Shell effects are central to predictions about the stability of untribium's possible isotopes.

• UntrihexiumRelated: Nuclear shell structure helps estimate whether a nucleus as heavy as element 136 could be stable.

• UntrioctiumRelated: Its predictions help assess whether a nucleus as large as element 138 could persist.

• UntripentiumRelated: Shell predictions influence estimates of possible long-lived isotopes near atomic number 135.

• UntriquadiumRelated: Its shell closures help estimate whether nuclei near proton number 134 can persist.

• UntriuniumRelated: Its predicted nuclear shells help estimate whether nuclei near element 131 might be stable.