584
Views
0
CrossRef citations to date
0
Altmetric
Review Article

Hunting cooperation in a prey–predator model with maturation delay

, &
Article: 2332279 | Received 25 Apr 2023, Accepted 12 Mar 2024, Published online: 22 Mar 2024

Figures & data

Figure 1. Plots of two non-trivial nullclines f1(n,p) and g1(n,p) for σ=0.5,κ=2,α=1 and h1 varying from 0.1 to 0.6. As h1 increases, the number of equilibrium point changes from 1 to 0.

Figure 1. Plots of two non-trivial nullclines f1(n,p) and g1(n,p) for σ=0.5,κ=2,α=1 and h1 varying from 0.1 to 0.6. As h1 increases, the number of equilibrium point changes from 1 to 0.

Figure 2. Plots of two non-trivial nullclines f1(n,p) and g1(n,p) for σ=10,κ=1.2,α=1 and h1 varying from 0.1 to 0.75. As h1 increases, the number of equilibrium point changes from 1 to 0 ‘through 2’.

Figure 2. Plots of two non-trivial nullclines f1(n,p) and g1(n,p) for σ=10,κ=1.2,α=1 and h1 varying from 0.1 to 0.75. As h1 increases, the number of equilibrium point changes from 1 to 0 ‘through 2’.

Figure 3. The bifurcation diagram with respect to the parameter h1: (a) σ=10,κ=1.2,α=1 and (b) σ=10,κ=1.2,α=2.217.

Figure 3. The bifurcation diagram with respect to the parameter h1: (a) σ=10,κ=1.2,α=1 and (b) σ=10,κ=1.2,α=2.217.

Figure 4. Plots of non-trivial prey nullcline f1(n,p) and predator nullcline g1(n,p,τ) for σ=10, κ=1.2, α=1, h1=0.1, β=0.1 and three different values of τ: τ=0, τ=1.5, τ=3.

Figure 4. Plots of non-trivial prey nullcline f1(n,p) and predator nullcline g1(n,p,τ) for σ=10, κ=1.2, α=1, h1=0.1, β=0.1 and three different values of τ: τ=0, τ=1.5, τ=3.

Figure 5. The bifurcation diagram with respect to the parameter h1 with σ=10, κ=1.2, α=1, β=0.5: (a) τ=0.3 and (b) τ=0.6.

Figure 5. The bifurcation diagram with respect to the parameter h1 with σ=10, κ=1.2, α=1, β=0.5: (a) τ=0.3 and (b) τ=0.6.

Figure 6. The bifurcation diagram with respect to the parameter h1 with σ=10, κ=1.2, α=2.217, β=0.1: (a) τ=0.05 and (b) τ=0.06.

Figure 6. The bifurcation diagram with respect to the parameter h1 with σ=10, κ=1.2, α=2.217, β=0.1: (a) τ=0.05 and (b) τ=0.06.

Figure 7. The bifurcation diagram with respect to the parameter h1 with σ=10, κ=1.2, α=2.217, β=0.1: (a) τ=0.0701 and (b) τ=0.11.

Figure 7. The bifurcation diagram with respect to the parameter h1 with σ=10, κ=1.2, α=2.217, β=0.1: (a) τ=0.0701 and (b) τ=0.11.

Figure 8. The bifurcation diagram with respect to the parameter h1 with σ=10, κ=1.2, α=2.217, τ=0.2, β=0.5.

Figure 8. The bifurcation diagram with respect to the parameter h1 with σ=10, κ=1.2, α=2.217, τ=0.2, β=0.5.

Figure 9. The bifurcation diagram with respect to the parameter τ with σ=10, κ=1.2, α=2, h1=0.1, β=0.5.

Figure 9. The bifurcation diagram with respect to the parameter τ with σ=10, κ=1.2, α=2, h1=0.1, β=0.5.

Figure 10. (Shift of bifurcation curves and bifurcation thresholds) σ=0.4, κ=1.2, β=0.1. Black and magenta colour solid curves represent saddle node bifurcation curves (SNC) for τ=0 and τ=0.6 respectively. Red and blue colour broken curves represent Hopf bifurcation curves (HC) for τ=0 and τ=0.6 respectively. Black and magenta colour vertical dash–dot curves represent transcritical bifurcation curves for (TC) for τ=0 and τ=0.6 respectively. BT and CP stand for Bogdanov–Takens bifurcation threshold and cusp bifurcation thresholds respectively.

Figure 10. (Shift of bifurcation curves and bifurcation thresholds) σ=0.4, κ=1.2, β=0.1. Black and magenta colour solid curves represent saddle node bifurcation curves (SNC) for τ=0 and τ=0.6 respectively. Red and blue colour broken curves represent Hopf bifurcation curves (HC) for τ=0 and τ=0.6 respectively. Black and magenta colour vertical dash–dot curves represent transcritical bifurcation curves for (TC) for τ=0 and τ=0.6 respectively. BT and CP stand for Bogdanov–Takens bifurcation threshold and cusp bifurcation thresholds respectively.

Figure 11. (Shift of bifurcation curves and bifurcation thresholds) σ=0.4, κ=1.2, β=0.1. Black, magenta and green colour solid curves represent saddle node bifurcation curves (SNC) for τ=0, τ=0.6 and τ=3 respectively. Red, blue and brown colour broken curves represent Hopf bifurcation curves (HC) for τ=0, τ=0.6 and τ=3 respectively. Black and magenta colour vertical dash–dot curves represent transcritical bifurcation curves for (TC) for τ=0 and τ=0.6 respectively. BT and CP stand for Bogdanov–Takens bifurcation threshold and cusp bifurcation thresholds respectively.

Figure 11. (Shift of bifurcation curves and bifurcation thresholds) σ=0.4, κ=1.2, β=0.1. Black, magenta and green colour solid curves represent saddle node bifurcation curves (SNC) for τ=0, τ=0.6 and τ=3 respectively. Red, blue and brown colour broken curves represent Hopf bifurcation curves (HC) for τ=0, τ=0.6 and τ=3 respectively. Black and magenta colour vertical dash–dot curves represent transcritical bifurcation curves for (TC) for τ=0 and τ=0.6 respectively. BT and CP stand for Bogdanov–Takens bifurcation threshold and cusp bifurcation thresholds respectively.