Quantum entanglement is a crucial resource in quantum information processing, advancing quantum technologies. The greater the uncertainty in subsystems' pure states, the stronger the quantum entanglement between them. From the dual form of
q-concurrence (
q≥2) we introduce the total concurrence. A bona fide measure of quantum entanglement is introduced, the
Cqt-concurrence (
q≥2), which is based on the total concurrence. Analytical lower bounds for the
Cqt-concurrence are derived. In addition, an analytical expression is derived for the
Cqt-concurrence in the cases of isotropic and Werner states. Furthermore, the monogamy relations that the
Cqt-concurrence satisfies for qubit systems are examined. Additionally, based on the parameterized
α-concurrence and its complementary dual, the
Cαt-concurrence
(0≤α≤21) is also proposed.
Abstract This work proposes a novel class of parameterized entanglement measures that are named as ‐concurrence () (), and demonstrates comprehensively that they satisfy all the necessary axiomatic conditions required for an entanglement measure. Furthermore, an analytical formula relating to concurrence for the range of within two‐qubit systems is derived. Additionally, a new polygamy relation of multiqubit quantum entanglement in terms of ‐concurrence of assistance () is proved. However, it fails to obey the monogamy relation, but it is demonstrated that the squared ‐concurrence () does obey a general monogamy relation in an arbitrary ‐qubit mixed state. Utilizing the monogamy properties of , the corresponding multipartite entanglement indicators can be constructed, which can detect all genuine multiqubit entangled states even in the case of ‐tangle vanishes. In addition, for multipartite higher‐dimensional systems, it is illustrated that still has the applicability of the monogamy relation.