A square footing of size $2.5\, \text{m} \times 2.5\, \text{m}$ is placed $1.0\, \text{m}$ below the ground surface on a cohesionless soil. The water table is at the base of the footing. Above and below the water table, $\gamma=18$ and $\gamma_{\text{sat}}=20~ \text{kN/m}^3$ (thus $\gamma' = 20-10 = 10~ \text{kN/m}^3$). Given $N_q=58$, the net ultimate bearing capacity for the soil is $q_{nu}=1706~ \text{kPa}$. Earlier, a plate load test with a circular plate of diameter $0.30$ m was carried out in the same pit during dry season (WT below influence zone). Using Terzaghi's formulation, find the ultimate bearing capacity of the plate (in kPa).
Step 1: Back–calculate $N_\gamma$ from the given square footing data.
For $c=0$, Terzaghi (square footing) net ultimate capacity
\[
q_{nu}=\gamma D_f\,(N_q-1)+0.4\,\gamma' B\,N_\gamma .
\]
With $D_f=1$ m, $B=2.5$ m, $\gamma=18$, $\gamma'=10$, $N_q=58$:
\[
1706=18(58-1)+0.4(10)(2.5)N_\gamma
=1026+10N_\gamma \Rightarrow N_\gamma=68.
\]
Step 2: Ultimate capacity of the circular plate during dry season.
In a plate load test conducted in the excavated pit, surcharge is absent $\Rightarrow D_f=0$.
For a circular footing (Terzaghi):
\[
q_u= \gamma D_f N_q + 0.3\,\gamma\,B\,N_\gamma
=0 + 0.3(18)(0.30)(68)=110.16~\text{kPa}.
\]
\[
\boxed{q_u=110.16~\text{kPa}}
\]
A 6 m \(\times\) 6 m square footing constructed in clay is subjected to a vertical load of 2500 kN at its centre. The base of the footing is 2 m below the ground surface, as shown in the figure. The footing is made of 2 m thick concrete. The ground water table is at a great depth. Considering Terzaghi's bearing capacity theory, the factor of safety of footing against the bearing capacity failure is ....... (rounded off to 2 decimal places).

Consider a five-digit number PQRST that has distinct digits P, Q, R, S, and T, and satisfies the following conditions:
1. \( P<Q \)
2. \( S>P>T \)
3. \( R<T \)
If integers 1 through 5 are used to construct such a number, the value of P is:



