87MO    9BE(112SN,X):ISOMER E:XUNDL-1 2023Xi01                           202302
 87MO c  Compiled (unevaluated) dataset from 2023Xi01: Phys. Rev. C 107,        
 87MO2c  014304 (2023).                                                         
 87MO c  Compiled by G. G~urdal, Jan 26, 2023                                   
 87MO c  2023Xi01: Neutron deficient {+87}Mo was produced via projectile        
 87MO2c  fragmentation of primary {+112}Sn beam and studied using Isochronous   
 87MO3c  Mass Spectrometry (IMS). The experiment was performed at the           
 87MO4c  HIRFL-CSR accelerator complex at the Institute of Modern Physics in    
 87MO5c  Lanzhou, China. The primary {+112}Sn{++35} ions were accelerated to a  
 87MO6c  relativistic energy of  |J400.88 MeV/u by the main Cooler Storage      
 87MO7c  Ring (CSRm) and impinged on a 10 mm thick {+9}Be target at the         
 87MO8c  entrance of Radioactive Ion Beam Line at Lanzhou (RIBLL2). The         
 87MO9c  fragments emerged from the target were separated in flight with        
 87MOac  RIBLL2 and the experimental Cooler Storage Ring (CSRe). To measure     
 87MObc  the revolution times of the stored ions a tof detector equipped with   
 87MOcc  a carbon foil and a set of multichannel plates were used. Measured:    
 87MOdc  E{-x} of the isomer. Comparison with the shell model calculations.     
 87MO  L 0            7/2+              14.1 S    3                             
 87MO cL J,T$from the Adopted Levels of {+87}Mo in ENSDF database.              
 87MO  L 310       30 1/2-                                                   M  
 87MO cL E$from the analysis of the shape of the overlapping peaks in the       
 87MO2cL revolution time spectrum using exponentially modified Gaussian (EMG)   
 87MO3cL function in 2023Xi01.                                                  
 87MO cL J$based on the systematics of the J|p of the observed isomers in the   
 87MO2cL neighboring nuclei in 2023Xi01. The authors of 2023Xi01 states that    
 87MO3cL the isomeric state is a neutron-hole state.