Researchers have made a significant discovery about the behavior of deconfined quantum critical points (DQCPs) under weak measurement. Specifically, they found that measurement can induce asymmetric entanglement in the ground state of a one-dimensional spin 1/2 system with long-range exchange interactions. This system exhibits a phase transition analogous to DQCP in the thermodynamic limit, with a critical exchange interaction threshold (K_c) separating the ferromagnetic phase from other phases. The study reveals that weak measurement can disrupt the symmetry of entanglement in the ground state, leading to asymmetric entanglement patterns1. This finding has implications for the understanding of quantum criticality and the behavior of quantum systems under measurement. The discovery of measurement-induced asymmetric entanglement in DQCP ground states matters to practitioners because it highlights the importance of considering measurement effects in the study of quantum critical phenomena.